Introduction Top Modern Agriculture Company
The agricultural landscape is undergoing a dramatic transformation, driven by cutting-edge technologies, a focus on sustainability, and data-driven decision-making.
From established giants to nimble startups, a diverse range of companies are redefining how we grow and source our food. Here’s a glimpse into 29 of the leading players making waves in the agricultural industry today:
Table of Content
29 Top Modern Agriculture Companies Shaping the Future of Food
▶️ Global Leaders Modern Agriculture Company
- Cargill
- Archer Daniels Midland (ADM)
- John Deere
- Bayer
- BASF
- Syngenta
▶️ AgTech Innovators Company
- Indigo Agriculture
- Plenty
- Impossible Foods
- AeroFarms
- Blue River Technology
- Carbon Robotics
▶️ Sustainability Champions Company
- The Crop Project
- Patagonia Provisions
- AppHarvest
- Rodale Institute
▶️ Other Notable Players:
- DowDuPont
- Monsanto
- Land O’Lakes
- CH Robinson Worldwide
- McDonough Farms
- Fairway Markets
- Whole Foods Market
- Urban Outfitters
- Smallhold Farms
- Equibiome
- Apeel Sciences
- Farmers Business Network
- Bowery Farming
▶️ Modern Agriculture Technology
▶️ Future of the Modern Agriculture
In this article, we’ll delve into the world of top modern agriculture companies, where innovation is as essential as sunshine and water. We’ll meet seasoned players like Cargill and John Deere, wielding decades of experience alongside cutting-edge technology. Alongside them stand nimble startups like Indigo Agriculture and Plenty, their agile minds brimming with fresh ideas to revolutionize how we grow and source food.
▶️ Definition of the Modern Agriculture
Modern agriculture is a broad term encompassing various approaches and innovations that aim to improve efficiency, sustainability, and food security in the face of growing challenges like climate change and population increase.
Here are some key characteristics of the Modern Agriculture
Technology-driven:
- Precision agriculture: Using data, sensors, and automation to optimize resource use, reduce waste, and increase yields.
- AgTech: Startups and established companies developing solutions like robots, drones, and data-driven tools for various agricultural tasks.
- Vertical farming: Growing crops indoors in controlled environments, maximizing land use and minimizing resource consumption.
Sustainability-focused:
- Regenerative agriculture: Practices that improve soil health, biodiversity, and water quality.
- Organic farming: Avoiding synthetic pesticides and fertilizers, focusing on natural methods.
- Reduced environmental impact: Minimizing water and energy use, greenhouse gas emissions, and pollution.
Increased efficiency:
- Automation: Utilizing robots and machinery for tasks like planting, harvesting, and weeding.
- Data-driven decision making: Using data analytics to optimize crop selection, resource allocation, and pest management.
- Improved logistics and supply chains: Efficiently moving and storing agricultural products to reduce waste and spoilage.
Global perspective:
- Addressing food security challenges for a growing population.
- Adapting to climate change and its impact on agricultural production.
- Promoting fair trade practices and sustainable livelihoods for farmers.
It’s important to note that modern agriculture is not a single, monolithic approach. It encompasses a diverse range of practices and technologies, with varying levels of adoption and impact depending on the specific context. Some companies and practices prioritize efficiency and yield, while others focus on sustainability and environmental responsibility.
Modern agriculture boasts several advantages over traditional methods, addressing many of the challenges facing our food system today. Here are some key benefits:
Increased Efficiency and Productivity:
- Precision agriculture: Optimizes resource use by precisely targeting specific areas of a field, reducing waste and boosting yields.
- Automation: Robots and machinery handle repetitive tasks, freeing up labor and increasing efficiency.
- Improved plant varieties: Genetically modified and cross-bred crops often offer higher yields, disease resistance, and improved stress tolerance.
Greater Sustainability:
- Regenerative practices: Promote soil health, biodiversity, and water quality, leading to a more sustainable future for agriculture.
- Reduced environmental impact: Minimizes water and energy use, greenhouse gas emissions, and pollution compared to traditional methods.
- Vertical farming: Enables food production closer to consumers, reducing transportation emissions and resource consumption.
Enhanced Food Security:
- Increased production: Helps meet the growing demand for food with a potentially smaller land footprint.
- Reduced crop losses: Improved pest and disease management helps ensure better harvests and less food waste.
- More resilient crops: Varieties developed for harsher conditions improve food security in vulnerable regions impacted by climate change.
Improved Food Quality and Safety:
- Advanced monitoring and testing: Ensures food safety and traceability throughout the supply chain.
- Controlled environments: Vertical farming and greenhouses offer consistent quality and reduced contamination risks.
- Precision fertilization: Provides crops with precise nutrient needs, potentially improving nutritional value.
Economic Benefits:
- Lower food prices: Increased efficiency and production translate to potentially lower food prices for consumers.
- Economic opportunities: Creates new jobs in areas like AgTech, precision farming, and sustainable agriculture.
- Improved farmer livelihoods: More efficient practices and higher yields potentially increase farmer income and improve livelihoods.
It’s important to remember that modern agriculture isn’t without its challenges, such as concerns about ethical implications of GMOs, potential negative impacts on small-scale farmers, and ensuring widespread adoption of sustainable practices. However, the potential benefits are significant, and continuous advancements offer promising solutions to the challenges facing our food system in the 21st century.
▶️ Global Leaders Modern Agriculture Company
Cargill: A Global Leader in Modern Agriculture
Cargill, a name synonymous with agriculture, remains a top player in the field, continuously adapting and innovating to meet the challenges of the 21st century. Here’s a closer look at this global leader and its contributions to modern agriculture:
Global Reach and Diversification:
- Founded in 1865, Cargill is a privately held, multinational corporation headquartered in Minneapolis, Minnesota.It operates in 70 countries with over 155,000 employees involved in various aspects of the food and agriculture value chain.
- From grain trading and origination to food processing, animal nutrition, and bioindustrial products, Cargill’s diverse portfolio reflects its commitment to a full-spectrum approach to agriculture.
Technology and Innovation:
- Cargill invests heavily in research and development, embracing precision agriculture solutions and data-driven approaches.
- The company utilizes digital tools like predictive analytics to optimize resource use, logistics, and supply chain management.
- Cargill also supports startups and collaborates with research institutions to foster innovation in areas like biotechnology and sustainable agriculture practices.
Sustainability Focus:
- While large-scale agribusinesses often face criticism for environmental impact, Cargill recognizes the importance of sustainability.
- The company has set ambitious goals for reducing greenhouse gas emissions, improving water and land use efficiency, and sourcing sustainable ingredients.
- Cargill supports regenerative agriculture practices like cover cropping and no-till farming to improve soil health and combat climate change.
Challenges and Opportunities:
- Cargill faces various challenges, including concerns about its market dominance, its impact on small-scale farmers, and the ethical implications of its involvement in certain agricultural practices.
- However, the company also has the opportunity to leverage its scale and resources to drive positive change in the industry.
- By investing in sustainable practices, supporting smallholder farmers, and promoting transparency throughout its supply chain, Cargill can contribute to a more equitable and sustainable food system for the future.
Overall, Cargill remains a significant force in modern agriculture, actively shaping the industry with its global reach, diversified portfolio, commitment to innovation, and growing focus on sustainability. While challenges remain, the company’s efforts hold promise for a more efficient, productive, and environmentally responsible food system in the years to come.
2. Archer Daniels Midland (ADM)
Archer-Daniels-Midland Company, commonly known as ADM, is an American multinational food processing and commodities trading corporation founded in 1902 and headquartered in Chicago, Illinois. It is one of the world’s largest agricultural processing companies, with activities in over 215 countries. Its products include food ingredients, animal feed, industrial oils, and biofuels.
ADM is a major player in the global food supply chain. It originates, transports, processes, and trades agricultural commodities, including grains, oilseeds, and ethanol. It also produces a wide range of food ingredients, such as sweeteners, starches, and flours. In addition, ADM operates a large network of grain elevators and transportation facilities.
The company has been criticized for its role in deforestation, its impact on small farmers, and its use of genetically modified organisms (GMOs). However, ADM has also taken steps to address these concerns, such as by investing in sustainable agriculture and sourcing more of its products from non-GMO crops.
Here are some of ADM’s key products and services:
- Human nutrition: ADM produces a wide range of food ingredients, such as sweeteners, starches, and flours, that are used in a variety of food and beverage products.
- Animal nutrition: ADM produces animal feed ingredients, such as corn gluten meal and soybean meal, that are used to nourish animals raised for food.
- Industrial biosolutions: ADM produces industrial oils and other products that are used in a variety of industrial applications, such as the production of biofuels and lubricants.
- Origination and processing: ADM originates, transports, processes, and trades agricultural commodities, including grains, oilseeds, and ethanol.
3. John Deere
John Deere is another major player in the agricultural industry, but with a different focus compared to ADM. Here’s a breakdown of what they do:
John Deere is an American manufacturer of agricultural, construction, forestry, and lawn care machinery. Founded in 1837, it’s headquartered in Moline, Illinois, and is known for its iconic green and yellow tractors.
Products and Services:
- Agricultural Machinery: John Deere is a leading producer of tractors, combines, planters, and other equipment used for various farming operations. Their tractors range from compact models for small farms to large, powerful machines for large-scale agriculture.
- Construction and Forestry Machinery: John Deere also offers a wide range of construction and forestry equipment, including excavators, dozers, skidders, and harvesters.
- Lawn and Garden Equipment: For homeowners and professionals alike, John Deere provides lawn mowers, zero-turn mowers, riding lawn tractors, and other equipment for maintaining lawns and gardens.
- Financial Services: John Deere Financial Services offers financing and insurance solutions for John Deere equipment purchases.
Impact:
John Deere plays a significant role in the global agricultural and construction industries. Their equipment helps farmers produce more food and fiber efficiently, and their construction equipment aids in infrastructure development and other projects. However, the company has also faced criticism for its environmental impact, labor practices, and market dominance.
Comparison with ADM:
While both are major players in agriculture, ADM focuses on processing and trading agricultural commodities, whereas John Deere manufactures the equipment used in farming and other related industries. They both play crucial roles in the global food supply chain, but in different ways.
4. BAYER
Bayer AG: A Global Life Science Powerhouse
Founded in 1863, Bayer AG has grown into a leading multinational pharmaceutical and biotechnology company, headquartered in Leverkusen, Germany. With over 100,000 employees worldwide, they operate across three key divisions:
Pharmaceuticals: This branch develops, manufactures, and markets prescription and over-the-counter medications for diverse therapeutic areas, including oncology, cardiology, women’s health, and consumer health. Aspirin, Aleve, Claritin, and Xarelto are just a few of their well-known brands.
Consumer Healthcare: Focusing on readily available solutions, this division offers various over-the-counter medications, nutritional supplements, and other healthcare products. Popular brands include Bepanthen, Coppertone, and Dr. Scholl’s.
Crop Science: This business segment develops, manufactures, and markets seeds, pesticides, and other agricultural chemicals. Some of their notable brands include Roundup, DeKalb, and Kocide.
Bayer is a significant player in the global life science scene, contributing to healthcare and agricultural advancements. However, the company isn’t without its controversies, such as the ongoing concerns surrounding the potential health risks of their herbicide Roundup.
5. BASF
BASF: Chemistry for a Sustainable Future
BASF, or Badische Anilin- & Soda-Fabrik Aktiengesellschaft, is a German multinational chemical company founded in 1865. Headquartered in Ludwigshafen, Germany, it boasts a presence in over 300 locations worldwide and employs over 111,000 people. The company focuses on creating chemistry for a sustainable future, operating across six core segments:
Chemicals: This segment forms the foundation of BASF, producing basic and intermediate chemicals used in various industries like automotive, construction, and plastics.
Materials: This segment encompasses engineering plastics, performance materials, and chemicals for surface treatment, catering to industries like electronics, automotive, and construction.
Industrial Solutions: This segment includes catalysts, process chemicals, and mining chemicals, supporting production processes in various industries.
Surface Technologies: This segment focuses on coatings, pigments, and industrial adhesives, contributing to the aesthetics and functionality of products across various industries.
Nutrition & Care: This segment produces ingredients for food, vitamins, animal nutrition, and personal care products.
Agricultural Solutions: This segment develops crop protection products, seeds, and digital farming solutions to support sustainable agriculture.
BASF strives for sustainability by integrating it into all aspects of its business. They have set ambitious goals for reducing greenhouse gas emissions and increasing resource efficiency. However, the company has also faced criticism for its environmental impact and involvement in certain products.
Here are some key points to remember about BASF:
- Global leader in the chemical industry with a diverse portfolio of products and solutions.
- Commitment to sustainability through various initiatives and ambitious goals.
- Focus on innovation to develop new and improved products and solutions.
- Presence in various controversies related to environmental impact and specific products.
6. Syngenta
Syngenta: Seeds and Traits for a Growing World
Syngenta, a Swiss multinational agribusiness company headquartered in Basel, Switzerland, plays a major role in the seed and agricultural products industry. Founded in 2000 through the merger of Novartis Agribusiness and Zeneca Agrochemicals, Syngenta operates in over 100 countries with around 31,000 employees.
Here’s a breakdown of their key areas:
Seeds: Syngenta is a leading developer and producer of innovative seeds across various crops like grains, oilseeds, vegetables, fruits, and flowers. They focus on developing improved varieties with enhanced yields, disease resistance, and other desirable traits.
Traits: The company also invests heavily in researching and developing advanced genetic traits. These traits, often incorporated into their seeds, offer benefits like herbicide tolerance, insect resistance, and nutrient efficiency.
Digital and Sustainable Solutions: Syngenta recognizes the importance of technology and sustainability in agriculture. They offer digital tools like BlightCast and BYDV Assist to help farmers manage pests and diseases effectively. Additionally, they are committed to developing solutions that promote regenerative agriculture practices and address climate change challenges.
Impact and Controversies:
Syngenta plays a significant role in global food security by providing farmers with improved seeds and technologies. However, they have also faced criticisms regarding:
- Market dominance: Concerns exist about their large market share in certain regions and potential impact on seed diversity.
- Genetically modified organisms (GMOs): The use of GMOs in their seeds has sparked debates about potential environmental and health risks.
- Impact on small farmers: Some argue that their business model might disadvantage small-scale farmers in developing countries.
Syngenta is actively involved in addressing these concerns through collaborations with research institutions, NGOs, and governments. They strive to improve their sustainability practices and promote responsible agricultural development.
▶️ AgTech Innovators Company
7. Indigo Agriculture
Indigo Agriculture: Sustainable Solutions for Farmers
Indigo Agriculture, based in Boston, focuses on leveraging science and technology to improve both the sustainability and profitability of agriculture. They achieve this by offering farmers a range of solutions:
Microbial Inoculants: These are mixtures of beneficial bacteria and fungi applied to the soil. They enhance soil health by breaking down organic matter, fixing nitrogen, and making nutrients more accessible to plants, ultimately leading to improved crop yields.
Carbon Program: This program incentivizes farmers to adopt sustainable practices that sequester carbon in their soil. This not only benefits the environment by mitigating climate change but also generates additional income for farmers through the sale of carbon credits.
Other Products and Services:
- Biologicals: A line of natural products supporting plant health and protecting crops from pests and diseases.
- Market+: A digital platform connecting farmers with buyers to ensure fair pricing for their crops.
- Carbon College: An online learning platform offering farmers resources and information on sustainable agricultural practices.
Indigo Agriculture strives to make agriculture more sustainable and profitable, helping farmers improve soil health, minimize environmental impact, and maximize yields.
8. Plenty
Plenty: Revolutionizing Agriculture with Indoor Farms
Plenty spearheads the vertical farming movement, using innovative technology to grow fresh, flavorful produce year-round. Their mission is to transform agriculture by:
- Local Production: Farms situated near consumers, minimizing transportation emissions and ensuring peak freshness.
- Increased Yields: Stacked farming systems generate 350 times more yield per acre than traditional methods.
- Resource Efficiency: They use 95% less water and no pesticides compared to conventional practices.
Technological Marvels:
Plenty’s farms are packed with cutting-edge features:
- Multi-level Towers: Maximize space and optimize yield.
- LED Lighting: Customized for each crop’s ideal growth.
- Automated Systems: Precisely control temperature, humidity, and nutrient delivery.
- Hydroponic/Aeroponic Systems: Minimize water usage and eliminate soil-borne diseases.
Benefits of Plenty’s Approach:
- Sustainability: Significantly reduced environmental impact and resource usage.
- Peak Freshness: Produce harvested at peak ripeness and delivered quickly to consumers.
- Year-Round Availability: Unaffected by weather or seasonal limitations.
- Pesticide-Free: Safe and healthy for consumers.
- Consistent Quality: Guaranteed flavor and texture.
The Future of Plenty:
Plenty aims to build 500 vertical farms worldwide and is dedicated to continuous research and development, pushing the boundaries of vertical farming technology.
Overall, Plenty offers a promising solution for modern agriculture, providing a sustainable and efficient way to grow healthy food for a growing population.
Data Points:
- 350x greater yield per acre compared to traditional farms.
- 95% less water usage compared to conventional methods.
- 500 planned vertical farms across the globe.
9. Impossible Foods
Impossible Foods: Plant-Based Meat on the Rise
Impossible Foods is a company making waves in the food industry with its plant-based alternatives to meat. Founded in 2011, they’ve garnered attention for their flagship product, the Impossible Burger, which aims to mimic the taste and texture of ground beef but without the animal.
Mission and Products:
Their mission is “to make the global food system truly sustainable by eliminating the need to make meat from animals.” They believe animal agriculture contributes significantly to environmental issues like climate change and resource depletion.
Products currently offered include:
- Impossible Burger: The star of the show, resembling ground beef in taste, texture, and even “bleeding” thanks to heme, a plant-based molecule mimicking iron found in meat.
- Impossible Sausage: Plant-based sausage available in breakfast patties and ground form.
- Impossible Chicken Nuggets: Nuggets with a crispy coating and juicy interior, aiming to replicate the taste and texture of chicken.
- Impossible Beef Made From Plants: Ground “beef” available in different fat contents for culinary versatility.
Impact and Sustainability:
Impossible Foods claims their products offer significant environmental benefits:
- Reduces greenhouse gas emissions by 89% compared to beef burgers.
- Requires 96% less land and 74% less water than beef cattle.
- Eliminates the need for antibiotics and growth hormones used in animal agriculture.
Growth and Future:
The company has experienced rapid growth, partnering with numerous restaurants and retailers worldwide. They continue to innovate and expand their product line, aiming to disrupt the traditional meat industry with sustainable and delicious alternatives.
Key Data Points:
- Founded in 2011.
- Flagship product: Impossible Burger.
- Mission: Eliminate animal-based meat with plant-based alternatives.
- Environmental benefits: reduced emissions, land use, and water consumption.
- Rapid growth and expanding product line.
10. AeroFarms
AeroFarms: Cultivating the Future of Sustainable Agriculture
AeroFarms is a leading indoor vertical farming company dedicated to growing high-quality, flavorful produce with minimal environmental impact. Established in 2004, they utilize a proprietary aeroponic growing system, where plants thrive in a mist of nutrient-rich water, maximizing efficiency and minimizing resource usage.
Mission and Practices:
- Mission: “To grow the best plants possible for the betterment of humanity.” This translates to:
- Superior Taste and Quality: Utilizing controlled environments allows for optimized growing conditions, resulting in consistently delicious and nutritious produce.
- Enhanced Food Safety: Rigorous procedures and certifications ensure food safety through Good Agricultural Practices (GAP), Good Manufacturing Practices (GMP), and Safe Quality Food (SQF) compliance.
- Sustainable Approach: Vertical farming reduces water consumption by up to 95% and eliminates the need for pesticides, promoting environmental sustainability.
- Year-Round Availability: Growing indoors allows for consistent production and eliminates dependence on seasons or weather patterns.
- Commercial Scale: AeroFarms operates large-scale farms, ensuring wider availability of their products.
Technology and Innovation:
- Aeroponic System: This innovative method delivers nutrients directly to plant roots through a fine mist, minimizing water waste and maximizing nutrient uptake.
- Data-Driven Growing: Sensors and automation allow for precise control of light, temperature, humidity, and nutrients, creating ideal growing conditions for each plant variety.
- Research and Development: AeroFarms invests heavily in R&D, constantly pushing the boundaries of vertical farming technology and optimizing yields and quality.
Impact and Partnerships:
- Global Reach: AeroFarms operates farms and partnerships across the United States and internationally, expanding access to their sustainable produce.
- Community-Focused Initiatives: Partnering with organizations like the World Economic Forum, they promote urban farming and community access to fresh food.
- Industry Leadership: As a founding member of the Controlled Environment Agriculture (CEA) Food Safety Coalition, AeroFarms actively contributes to shaping the future of safe and sustainable indoor agriculture.
Key Data Points:
- Founded in 2004.
- Uses aeroponic technology for water-efficient growing.
- Achieves up to 95% water reduction compared to traditional farming.
- Operates large-scale farms for wider product availability.
- Committed to R&D and continuous innovation.
- Actively involved in promoting sustainable and community-focused food systems.
Overall, AeroFarms exemplifies the potential of vertical farming to provide a sustainable and efficient solution for future food production, offering high-quality produce with minimal environmental impact.
11. Blue River Technology
Blue River Technology: Smart Weed Control for Sustainable Agriculture
Blue River Technology is revolutionizing weed control in agriculture through cutting-edge robotics and artificial intelligence. Founded in 2011, they’ve developed the See & Spray™ technology, a game-changer in precision weed control.
Mission and Impact:
- Mission: Empower farmers with intelligent solutions that optimize resources, improve profitability, and minimize environmental impact.
- Impact: Blue River tackles critical agricultural challenges:
- Herbicide Resistance: See & Spray™ targets only weeds, slowing resistance development and reducing reliance on herbicides.
- Environmental Sustainability: Minimized herbicide use protects soil health and reduces pollution.
- Economic Benefits: Farmers see significant cost savings and improved yields, leading to increased profitability.
See & Spray™ Technology:
- Machine Learning: Advanced algorithms analyze high-resolution images, accurately distinguishing crops from weeds.
- Robotic Spraying: Precise nozzles apply herbicide only to detected weeds, minimizing waste and environmental impact.
- Benefits:
- Reduced herbicide use by up to 90% compared to traditional methods.
- Improved weed control efficacy and crop yields.
- Reduced labor costs.
- Enhanced environmental sustainability.
Future of Blue River Technology:
- Continued Innovation: They’re constantly refining their technology and expanding product offerings.
- Global Reach: Blue River actively expands its presence in international markets.
- Collaboration: Partnerships with leading agricultural companies advance sustainable practices.
Key Data Points:
- Founded in 2011.
- See & Spray™ reduces herbicide use by up to 90%.
- Improves weed control efficacy and crop yields.
- Contributes to sustainable and profitable agriculture.
Overall, Blue River Technology is a leading innovator offering a promising solution for weed control that benefits farmers, the environment, and the future of food production.
12. Carbon Robotics
Carbon Robotics: Zapping Weeds with Lasers for Sustainable Farming
Carbon Robotics is a Seattle-based agricultural robotics company founded in 2018. Their focus lies on developing innovative robotic solutions to empower farmers through:
Mission:
- Improved efficiency: Automating tasks and improving precision agriculture methods.
- Sustainability: Reducing reliance on herbicides and promoting regenerative farming practices.
- Profitability: Helping farmers increase yields and decrease costs.
Their flagship product:
- Autonomous Weeder: This tractor-sized robot utilizes:
- Cameras and computer vision: To identify weeds with high accuracy.
- Lasers: To precisely target and eliminate weeds without harming crops.
- Artificial intelligence: To optimize weed detection and laser targeting.
Benefits:
- Organic certification: Eliminates the need for chemical herbicides.
- Improved weed control: Precise targeting ensures all weeds are eliminated.
- Reduced costs: Saves farmers money on herbicides and labor.
- Environmental benefits: Minimizes herbicide use and promotes soil health.
- Safer working conditions: Eliminates exposure to herbicides for farmers.
Additional products and development:
- Carbon Robotics is actively developing a new product line in agricultural technology, aiming to expand their offerings beyond weed control.
- They recently raised $8 million in funding, which will accelerate their development efforts.
Overall, Carbon Robotics offers a promising solution for sustainable weed control. Their innovative technology has the potential to significantly benefit farmers, the environment, and the future of agriculture.
Here are some data points for your reference:
- Founded in 2018.
- Developed the Autonomous Weeder, a laser-based weed control robot.
- Achieves organic certification by eliminating herbicide use.
- Reduces weed control costs for farmers.
- Actively developing new agricultural technology products.
▶️ Sustainability Champions Company
- The Crop Project
- Patagonia Provisions
- AppHarvest
- Rodale Institute
▶️ Other Notable Players:
- DowDuPont
- Monsanto
- Land O’Lakes
- CH Robinson Worldwide
- McDonough Farms
- Fairway Markets
- Whole Foods Market
- Urban Outfitters
- Smallhold Farms
- Equibiome
- Apeel Sciences
- Farmers Business Network
- Bowery Farming
▶️ Modern Agriculture Technology
Modern Agriculture Technology: A Data-Driven Revolution
The way we grow food is undergoing a significant transformation driven by advancements in technology. Modern agriculture tech is making farming more productive, efficient, and sustainable, with data playing a central role in this evolution. Here are some key areas where this shift is happening:
1. Precision Agriculture: Imagine sensors meticulously collecting data on your crops and soil, providing insights into moisture levels, nutrient needs, and potential pest threats. This is the reality of precision agriculture, where farmers leverage sensors, drones, and data analysis tools to make informed decisions on planting, irrigation, fertilization, and pest control. This data-driven approach leads to reduced water usage, targeted resource allocation, and ultimately, higher yields.
2. Robots Take the Field: Robots are no longer confined to science fiction; they’re increasingly contributing to farming activities. Autonomous robots are programmed to handle various tasks like planting, weeding, harvesting, and even milking cows. This not only reduces labor costs but also improves efficiency and precision in farm operations. Imagine a fleet of robots meticulously weeding a field, meticulously avoiding your precious crops!
3. Vertical Farming Soars: Land scarcity? No problem! Vertical farming allows food production to literally reach for the sky. Crops are grown indoors in vertically stacked layers, creating controlled environments optimized for temperature, light, and humidity. This method is particularly well-suited for urban areas and regions with limited land availability. Imagine fresh salads and vegetables flourishing within city walls!
4. Genetic Engineering: A Complex Equation: Genetically modified organisms (GMOs) raise both excitement and concerns. By altering the genetic makeup of plants or animals in a lab, scientists aim to improve pest resistance, enhance nutritional value, or increase drought tolerance. While this holds the potential for increased food security, ethical and safety debates surround GMOs, requiring careful consideration and open dialogue.
Data: The Common Thread
These diverse technologies share a common thread: data. By collecting and analyzing vast amounts of information, farmers gain deep insights into their operations, enabling them to optimize resource use, maximize yields, and minimize environmental impact. This data-driven approach is transforming agriculture into a smarter, more sustainable, and efficient industry.
Challenges and the Road Ahead
While the potential of modern agriculture technology is undeniable, challenges remain. Affordability can be a barrier for smaller farms, and potential job displacement due to automation raises concerns. Addressing these issues and ensuring equitable access to technology are crucial for a truly sustainable and inclusive future of farming.
▶️ Future of the Modern Agriculture
Gazing into the Future of Modern Agriculture: A Kaleidoscope of Possibilities
Modern agriculture technology is rapidly reshaping the way we cultivate food, and its influence shows no signs of slowing down. As we stand on the precipice of what promises to be a transformative future, several key trends are likely to guide the evolution of this dynamic industry:
1. Embracing Artificial Intelligence (AI): AI’s potential to revolutionize farm management is immense. Imagine AI-powered systems analyzing data from sensors, drones, and satellites to predict crop health, optimize resource allocation, and even perform autonomous tasks like weed control and disease detection. This level of automation could significantly enhance efficiency and productivity.
2. Robotics on the Rise: The current wave of agricultural robots will likely evolve into even more sophisticated machines capable of handling complex tasks like fruit picking and livestock monitoring. Collaborative robots, designed to work alongside humans, could bridge the labor gap and address ergonomic concerns faced by farmworkers.
3. The Rise of Regenerative Agriculture: As environmental concerns escalate, regenerative practices that prioritize soil health and biodiversity will gain traction. Imagine farms functioning as integrated ecosystems, employing cover crops, rotational grazing, and biofertilizers to enhance soil fertility and carbon sequestration.
4. Personalized Nutrition & Vertical Farming: Imagine customized food production tailored to individual dietary needs and preferences. Vertical farms, coupled with advancements in hydroponics and aeroponics, could enable localized production of fresh, high-quality produce in urban areas, reducing reliance on long-distance transport and its associated environmental footprint.
5. The Ethical Debate around Gene Editing: CRISPR-Cas9 gene editing technology holds immense potential for crop improvement, but ethical concerns and regulatory hurdles remain. Open dialogue and responsible development will be crucial in navigating this complex landscape.
Data: The Fueling Force
Data will continue to be the driving force behind all these advancements. The ability to collect, analyze, and interpret vast datasets will empower farmers to make data-driven decisions, optimize resource use, and minimize environmental impact.
Challenges and the Path Forward
The future of modern agriculture is brimming with possibilities, but challenges persist. Ensuring equitable access to technology for all farmers, addressing potential job displacement caused by automation, and navigating the ethical considerations surrounding gene editing are crucial issues that demand focused attention.
By fostering collaboration between scientists, farmers, policymakers, and consumers, we can harness the power of technology to create a future of agriculture that is productive, sustainable, equitable, and resilient. Ultimately, this future holds the promise of ensuring food security and nourishing a healthier planet for generations to come.
https://www.exaputra.com/2024/02/29-top-modern-agriculture-companies.html
Renewable Energy
The Miseries of Planned Societies
The people in Northern Europe and other spots around the globe are miserable? Democratic socialism has been the driving force in making the people of the following counties the seven happiest on Earth (in order).
Finland
Iceland
Denmark
Costa Rica
Sweden
Norway
Netherlands
Renewable Energy
Trump Inspires Artistic Creativity
Renewable Energy
Vineyard Wind Battles GE Vernova, UK Funds Blade Innovation
Weather Guard Lightning Tech

Vineyard Wind Battles GE Vernova, UK Funds Blade Innovation
Fraunhofer studies uptower carbon blade repairs, Vineyard Wind’s fight with GE Vernova deepens, the UK backs offshore innovation, and a 26-year Horns Rev study tracks how birds adapt to turbines.
Sign up now for Uptime Tech News, our weekly newsletter 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 YouTube, Linkedin and visit Weather Guard on the web. And subscribe to Rosemary’s “Engineering with Rosie” YouTube channel here. Have a question we can answer on the show? Email us!
The Uptime Wind Energy Podcast, brought to you by StrikeTape. Protecting thousands of wind turbines from lightning damage worldwide. Visit striketape.com. And now your hosts.
Allen Hall: Welcome to the Uptime Wind Energy podcast. I’m your host, Allen Hall. I’m here with Rosemary Barnes, Yolanda Padron, and Matthew Stead. Fraunhofer has published peer-reviewed feasibility research in wind energy science. And Rosemary, I don’t know if you read wind energy science, but there’s a lot of good information there about wind turbines and mechanical aspects.
Not much on the electrical side, but a lot about mechanical. Uh, in, in, in wind energy science, uh, they had a discussion or an article about repairing damaged pultruded CFRP spar cap planks while the blade stays on the turbine. Using finite element analysis on a 81.6-meter [00:01:00] blade from a seven-megawatt offshore turbine, the researchers found that a shear web window cut out as short as one meter drops buckling resistance from 20.7 times critical load to four times critical load, a reduction of over 80%.
The fix? Temporary external clamping frames with a pre-tensioned span-wise rod to carry gravity loads, combined with internal push rod assemblies and external stringers profiles to restore buckling resistance, all installed and removed uptower. Wow. I know we’ve discussed the carbon pultrusion repair situation and how critical that is or h- how difficult it is.
I didn’t realize it was that difficult, Rosemary, that if you actually try to replace a one-meter section of a carbon pultrusion, you’re re- reducing the, the, what, the, the buckling resistance by 80%? [00:02:00] Holy moly.
Rosemary Barnes: I don’t think that’s even 100% pultrusion specific, right? They’re talking about cutting a, a window in the shear web.
Allen Hall: Yes.
Rosemary Barnes: So that could be for any kind of repair you might have to do that, including if you need to repair, like sometimes you need to repair the, the shear web. Um, and even though, like, they’re not doing a lot of heavy lifting, um, that’s kind of a structural pun, um, they’re still super important. If they’re not there, then you’re gonna have big problems pretty immediately.
The way that it works with repairs is that there’s certain kinds of damage that you know that you can just do uptower. The technicians know they can do it. They don’t need to call an engineer. The engineer doesn’t call- need to call the expert engineer. But when you need to do something a bit unusual, like a whole meter of web removed, then you’re gonna need to get an engineer to, um, dial in the, y- the, to rerun the design codes basically, um, but with this weak structure now to see is this okay and is it okay, you know, uh, [00:03:00] obviously a turbine that is just, um, idle or it’s not even idle, it’s just fixed in place while they’re repairing it, that has different loads on it to one that’s operating.
So, you know, they’ll run that and make sure that it’s safe, um, before they do the repair. So what I really like about Fraunhofer is that they in some ways, like- Maybe it’s not cutting-edge science or engineering because they are largely repeating what is already well known in industry. But the problem is that industry doesn’t tell everybody else.
And so it is, like, such a vital role to then go and illustrate, um, to everybody else what, what’s happening in industry. And they, they are… Like, there is this problem with wind energy where academia and industry are not, um, talking too much, and a lot of the academic stuff just doesn’t relate at all to what’s happening in the industry.
But Fraunhofer do, like, 90, 90% of the time seem to get it at pretty right.
Allen Hall: When a carbon protrusion is [00:04:00] used, that really localizes where the load is versus in, in some of the more fiberglass designs that I’ve seen, the shell is actually taking some of the load. It’s not all in the shear web, so to speak. So doesn’t that sort of focus the loads into one location a little bit more when you move to carbon?
Isn’t that the point?
Rosemary Barnes: Yeah. Well, the carbon fiber is, is a lot, lot, lot stiffer than, um, fiberglass, and it’s, it’s a lot stronger. So yeah, you are designing… I, I mean, always the spar caps have been the main load carriers, the, um, you know, the main laminate, the bit between the shear webs or over the shear webs.
Um, but it’s, yeah, it probably is, um uh, e- exacerbated or the increased effect when you add carbon fiber. But the, the thing about carbon fiber is it’s so susceptible to small damages or small deviations, so like a tiny little bit of fiber waviness, like if your fibers aren’t perfectly straight, then you can easily get a, a crack.
And [00:05:00] carbon fiber can also be a lot less forgiving than fiberglass. It is not uncommon that it will just break, and you didn’t even know there was anything wrong. So that damage intolerance is what led to people moving away from carbon fiber fabric and into pultrusions, because they’re made with perfectly straight fibers.
Um, but it, it raises some, uh, problems of its own because y- yeah, like how do you repair that? You can’t, um, you can’t get the fibers as straight again unless you repair a whole plank, um, because like they look like, like two-by-fours or something. You know, like they look like little fence palings, basically.
Black, black fence palings. Um, and so yeah, you, you’d have to repair, replace a whole one, and then you’ve got like a big chunk of structure that’s missing there, so that’s pretty hard to do uptower. I, I don’t know anybody that does those uptower, actually. Um, m- maybe they can now with this reinforcement method, but I would still not enjoy being in a blade that was missing a, a [00:06:00] pultrusion and up in the air.
Allen Hall: The offshore versus onshore equation, it, it would make more sense onshore to actually drop the blade, I assume. Offshore adds difficulty, but it sounds like with all the rigging a- and assembly that you would have to do offshore, it, it probably is gonna be close in terms of total cost to do an uptower repair versus a downtower repair I would think.
It, it– Wouldn’t you think it’d be roughly right?
Rosemary Barnes: Yeah, like in, in offshore, there’s always more motivation to do complicated, um, expe-expensive uh, things that will save you from having to do something even more expensive, like bringing, um, a whole blade back. Uh, yeah, going out, getting the vessel with the crane, bringing the blade down, and taking it in is just incredibly expensive.
So you can spend a lot of time faffing around reinforcing a blade uptower before you, um, you know, would come out behind. But you know what? While we’re on topic of carbon pultrusions, I think it, like it, um, it’s almost bypassing the, the biggest risk with them ’cause [00:07:00] what I see is the– Like it’s one thing when you know you’ve got damage that you need to repair, but far more common, I think, is that you don’t even know that you’ve got damage.
It’s very hard to, to see what’s going on in there. Um, I mean, people aren’t just going up periodically and doing ultrasounds, ul-ultrasound scans of their entire blade. But even if they were, it’s still not that easy to find all of the, the little damages in, in pultrusions. So, um, yeah, that’s something…
‘Cause it’s not such an old technology. It’s been around for, I, I don’t know, like not even 10 years these have been, being used consistently, probably more like five, um, that there’s been a lot of them out there. And I just, yeah, I, uh, maybe I’m overreacting because all I see is broken blades in my career, but, um, you know, I am a little bit worried that we’re gonna start to see as, you know, fatigue builds up, that we might start to see some more like sudden breakages in these blades.
Allen Hall: If Fraunhofer’s working on it, there must be a reason for the [00:08:00] analysis and all the engineering time that they spent on it, that it’s a concern. I don’t know how you would do it offshore, honestly, because of all the wind loads. That you would have this damaged blade, and yes, you would have all the engineering calculations, but I would just see the safety people being very concerned about it.
Because if it does go free, you have a couple of people up there minimum, and who knows what’s below.
Rosemary Barnes: But even the amount of time in between knowing that you have to, um, replace a pultrusion and actually getting up there to do it, like I’d be surprised that it didn’t break in that, in that time because it is such a big, a big, a big thing.
Um, so yeah. Uh, but super interesting work and I do, I, I do really, really appreciate that the Fraunhofer exists to, you know, do this sort of stuff and, um, give us the information w-we need to get a better understanding.
Allen Hall: Delamination and bondline failures in blades are [00:09:00]difficult problems to detect early. These hidden issues can cost you millions in repairs and lost energy production. CIC NDT are specialists to detect these critical flaws before they become expensive burdens. Their nondestructive test technology penetrates deep into blade materials to find voids and cracks traditional inspections completely miss.
CIC NDT maps every critical defect, delivers actionable reports, and provides support to get your blades back in service. So visit CICNDT.com because catching blade problems early will save you millions
UK government has deployed 15 million pounds, uh, which is about $20 million, uh, through Innovate UK in a coordinated push to move offshore wind technology from prototype stage into commercial supply chains. The package has three components: a 10 million [00:10:00] pound offshore wind innovation program, open competition for high potential businesses, a five million pound wind innovation hub to align industry, government, and research, and a 12 million pound effort for phase one of a large structures innovation center on the Isle of Wight, with Vestas already signed as its first industry partner for sustainable blade development.
So the, the large structure innovation center is a composite center which is gonna be doing some advanced technology work on blade design. And I think there’s no better place to do that at the moment than in the UK. But it does open the door to a number of UK firms, and even outside the UK firms, to get involved in the UK offshore and somewhat on the onshore side.
This has massive potential, I think, within the UK and outside the UK, Matthew.
Matthew Stead: I, I know from my own firsthand experience that, um, uh, actually getting into the wind space is, like, really [00:11:00] hard. So for this sort of, um, incubator and support around, um, you know, setting up businesses, I, I think this is a really, really good thing for the UK government to be doing.
Um, ’cause, yeah, how do, how do you build up a future industry if you, if you don’t have the new businesses coming through? So I, I think it’s a, it’s a, it’s a great thing that the UK government’s doing. And yeah, and how do you get small companies working with the larger OEMs? How do you get the innovation?
Yeah, it’s, yeah, I think that’s probably, you know, got five gold stars for the UK government.
Allen Hall: What are the areas that they should be focused on over the next couple of years? Obviously, blades is, is a massive one. I’m sure Vestas is gonna be deeply involved with that. Are there some other areas in technologies that the UK should be orienting its supply chains towards?
Matthew Stead: I’m personally 100% biased towards blades ’cause w- we know that, you know, um, if we look at the failures and we look at the failure rate, you know, where is the greatest growth in failure rates? It’s blades. Um, [00:12:00]you know, why, why are we still having failures? Why haven’t we learned? You know, where is the knowledge exchange?
Um, so I- I’m biased, but I think it’s, it’s, it’s, it’s needed in, in the blade space. Yeah, as what, you know, Rosie and you were talking about before, um, you know, knowing more about, um, what’s going on, how it can be repaired, how it can be dealt with, I think is super, super critical.
Allen Hall: Well, Vineyard Wind has its 62 turbines in the water south of Martha’s Vineyard, but the project is delivering only partial power while GE Vernova works through its outstanding repairs.
Now, the financial pressure is breaking into public view on two fronts. Boston landlord BP Hancock LLC is suing Vineyard Offshore, uh, the Avangrid and BP joint venture, for nearly $1.2 million in back rent at its John Hancock Tower offices. Uh, separately, GE Vernova wants out of its turbine supply contract, claiming Vineyard Wind owes [00:13:00] it over $300 million.
Vineyard Wind fires back that it is actually owed more than 800 million from GE Vernova, so that, that saga will continue for a while. But it is a little odd that the rent is not being paid by Vineyard Wind at, at, in the John Hancock Tower. And if you’re familiar… That’s downtown Boston. If you’re familiar with downtown Boston, that, the John Hancock Tower is one of those iconic buildings you see in pretty much every downtown photo of Boston.
There must be a lot happening at the moment at Vineyard that they’re not able to pay the rent, or they’re trying to shuffle some money around or, or seek more financing. Sounds like they’re in a refinancing phase, honestly. Yeah,
Yolanda Padron: I know that at, at times there’s– it’s really common for, for an asset manager to think, you know, “Oh, we have X amount of money,” and then all of a sudden you– it’s all of the, the additional [00:14:00] repairs or the additional operational costs stack up to a bit more than they thought they were gonna have, and then maybe they don’t even have enough money to go do trash removal or anything.
And that happens, and it’s more often than, than we’d like to admit. Um, but this is on a bigger scale, right? Like, this is a project that we’ve talked a lot about, everyone’s talked a lot about, and it has a lot of eyes on it. And so for it to, to be so behind on rent on such an iconic place and such an important place and such an important part of the country, backed by a very important company, it’s really, it’s really interesting to, to think about kind of what they’re thinking.
‘Cause in, in my mind, right, like, if I was the people backing them, I would think, “Okay, well, the f- first thing’s first, like, let’s not give them any additional reason to hate us right now.” Right? Or like, you know, the public opinion is really big on these kind of things. Um, so I, I don’t, I don’t know what the, what [00:15:00] the exact plan is here.
Allen Hall: Well, I wonder if this is part of the, the negotiation with GE Vernova, that, uh, the, the payments and the, the power which leads to payments, uh, hasn’t been at it- its desired output from Vineyard Wind and is this an effort to, uh, shore up their legal case with GE Vernova to say, “Hey, look, uh, Avangrid’s not gonna throw a bunch of money in, even for rent.
This project needs to stand on its own two feet, and it can, but GE Vernova needs to be involved with it and get the turbines up and running to the level at which they were contracted to do”? Is this part of that play? ‘Cause it just feels like it. You know Avon Grid has the money to pay the rent. That’s not even a question.
It’s, but it’s why they are not doing it is probably the bigger question at the moment. Is, is it just all legal maneuvering at the minute?
Matthew Stead: I, I wonder if it’s a bit like, uh, you get the utility billing, you get the [00:16:00] electricity billing, you put it in the, the drawer over there, and then you forget about it, and then you forget to pay it, and-
Allen Hall: It’s a million dollars
Matthew Stead: $1 million out of, uh, 600 or whatever billions, you know? Maybe it was, maybe it was just a simple oversight.
Allen Hall: It could totally be oversight, but it’s, it seems like with the amount of attention that Vineyard Wind and GE Vernova are, are getting, and they are literally within a stone’s throw of one another, they can s- I’m– You could probably see the GE Vernova building from the John Hancock Tower, that, uh, you, you think that some of this would get settled, but it’s not.
It’s still going on. It’s, it’s crazy. It– With, and with Avon Grid and BP still being involved with it somewhat, uh, there’s something happening behind the scenes that has not poked its head up yet. It’s coming, though. This is all coming to a head pretty quickly. The– Massachusetts needs Vineyard Wind to run.
They really do, and it’s, it is a little surprising at [00:17:00] times that the state of Massachusetts is standing on the sidelines in this.
Matthew Stead: As wind energy professionals, staying informed is crucial, and let’s face it, difficult. That’s why the
Allen Hall: Uptime Podcast recommends PES Wind Magazine. PES Wind offers a diverse range of in-depth articles and expert 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 peswind.com today. In this quarter’s PES Wind, there’s a lot of good articles in there. If you don’t have a copy, you can go to peswind.com and download one. A interesting article from Safe Lifting, which is a European-based lifting company that does basically bespoke engineering on lifts, and they’ve been making a push that’s saying that the next wave of projects depends on bigger [00:18:00] turbines, of course, which means bigger lifts, but they need to have some standardization to them.
Uh, things like spreader beams and rigging systems that are pre-built and pre-validated, uh, just reduce the overall engineering time it takes to do these lifts. Uh, and rental equipment models are a lot lower cost than buying OEM-specific or site-specific lift equipment, trying to keep the capital costs down.
That’s one of the big pushes in the wind industry is lowering the overall cost of installation. It does make sense, but it– as we were talking off-air a minute ago, a lot of lifts for basically the same kind of turbine are different. The, the connection points are different. There’s a lot of engineering that goes on there, and as the turbine sizes reach 15 megawatts plus, and the cells are massive, blades are massive.[00:19:00]
But it does seem like in a lot of other aspects of wind, there is some standardization, an IEC spec or some sort of overall guidance document for the industry that like, let’s put the lift points here, here, here, and here and lift with the right equipment. And Matthew, we just haven’t done it in lifting, even in smaller turbines, same thing.
Matthew Stead: Oh, it’s crazy. Um, I was, I was thinking about it, and, you know, my, my suggestion would be that, you know, when I buy 100 turbines, I should get, um, a blade lifting kit. It’s like when you buy a car, you, you get a, you get a kit to change the tire, don’t you? So I would’ve thought it would be just fundamental. Um, but, but, but we know that the wind industry is not always logical.
Um, so what is, what might be considered normal in a car is not normal for a wind turbine. Um, but yeah, uh, you know, this sounds like a perfect way of going to have more of a sort of standardized and, you know, not, not wait for the OEMs, but actually lead this and, and [00:20:00] drive this standardization. So yeah, thumbs up from me.
Yolanda Padron: I think this is really cool. Uh, I really hope that if we can standardize the way that we do that, we can make sure that the teams are trained in, like, the standard ways of, of lifting. I know that, um, I’ve, I’ve seen a few cases where someone didn’t know, there hadn’t- been exposed to a particular blade type and they were in char- you know, in charge of, of lifting it to, to, to do a blade replacement and then, um, they accidentally ended up damaging the blade and so you had this bad crack that they kind of painted over because it was a little bit embarrassing for them at the time.
And then, you know, a year later it’s like, well, okay, well, maybe next time ask someone, um, if you if you don’t know the, the exact lifting protocols or, or if you mess up, you know, let someone know. Um, but, but [00:21:00] yeah, the, you know, a lot of these, these smaller and, and larger structural cracks that, that come from, from lifting errors would be avoided if everybody was doing the same thing or the same two iterations of Of lifting standards, which is really exciting
Matthew Stead: Y- y- if you’ve got a wind farm, y- y- you’re guaranteed you’re gonna have to drop a blade at some point, aren’t you?
Allen Hall: And a gearbox
Matthew Stead: and a generator It’s, it’s pretty much a given. So like, like I said before, I reckon it should just be part of the standard kit that you buy, is you, you, you buy a substation, but you also buy a lifting, a lifting kit as well.
Allen Hall: It’s one of the more, uh, dangerous parts of wind is lifting, clearly, and we’ve seen that over time.
And, uh, having standardized equipment, back to Yolanda’s point, does make a lot of sense because if you’re out there doing this quite often and you have different rigging for every different OEM, you can get crosswise, and things happen. And if we had some standardization there, that would make a tremendous [00:22:00] amount of sense.
That’s why, uh, Safe Lifting wrote this article on PES Wind. So if, if you wanna read this article, just visit peswind.com. When engineers plan an offshore wind farm, they try to account for everything, including seabirds. And at the Horns Rev wind farm in the Danish North Sea, the layout was meant to leave birds a clear way through, but the birds had, uh, ideas of their own.
After 26 years of patient monitoring, researchers found that the turbines did not simply chase wildlife away. Instead, they reshuffled the entire neighborhood in the sky, turning some species into avoiders and others into opportunists. So this has been a big discussion in the wind industry for a long time, particularly for offshore wind projects, of what to do with the birds.
And the early assumption was that, hey, let’s just give them a pathway where they can fly [00:23:00] through, and birds have made up their minds. Some are taking that path. Others are avoiding it because of the change in the which, uh, species are hanging out where. This is a remarkable outcome, and it’s been going on long enough that there’s, uh, some statistical relevance to it now.
Do we need to get some bird psychologists involved in these offshore projects on how we think of how birds behave? Because I think to the engineering community, you know, like, you, you put a road there for you to fly through, bird, and then you decide not to. This is at a different level than engineering.
Yolanda Padron: I think it’s great to do as much as you can do, right? It’s amazing that they did all of this work. It is kind of funny. I mean, it’s, it’s sad. I’ve… I’m, I’m gonna get into trouble on LinkedIn or something by someone. I, I mean, it’s, it’s sad, of course, if, if birds get hit, right? But it’s, it’s, we can’t control everything.
You [00:24:00] know, as much planning that went into this, it’s
And what’s the next step here?
Matthew Stead: Well, first of all, 26 years? Is that correct? Yeah, 26 years. I mean, m- I, my- the thought that came to mind is that sometimes engineers don’t understand the natural environment. Sorry, just, just take that as a, as a observation. But, you know, I- it just reminds me of when, um, when civil engineers lay out paths and pavement, you know, they put a path in, but then people walk around it.
People do whatever they wanna do. And so, you know, I, I don’t think we can actually design out some of these things because we just will never understand the bird, we’ll never understand the human. Um, so yeah, I think put a little bit of effort in. I think going back to what Yolanda said, just put a, a bit of effort in.
But yeah, actually, there are some things in this world we can’t control.
Yolanda Padron: Yeah, I mean, [00:25:00] there’s, there’s of course endangered species. There’s of course, you know, a lot of, a lot of monitoring companies out there that do a really good job. Depending on what you need and depending on, you know… You can tailor your site needs around w- what’s gonna happen, right?
Or, you know, if you know that you’re in the migratory pattern of a particular species- There’s, I know there’s a lot of very smart people hard at work to make sure that your site is tailored to fit what needs to, what needs to happen there. And it’s great. I think it’s a great, it’s great to know, you know, that, that people in this industry care about birds.
I know I once had to go through extra check at TSA because the, the person there said, you know, “Oh, you work in wind? Save the birds.” And then he sent me through this, like, a lot, because he, he thought I was killing birds every day. Um, so I mean, you know, [00:26:00] we’re not killing birds out here, and it’s great, and it’s lovely to see all the hard work that goes into this.
But it, but it also, it’s, it’s important to note that the plans aren’t gonna be 100% foolproof, and that’s okay. You can just try your best.
Allen Hall: What’s the one bird you would assume as an engineer would not care if the wind turbines were there or not? The bird you see absolutely everywhere around the sea.
Matthew Stead: Seagull.
Allen Hall: Seagull. They do not care. They love wind turbines. They’ll use them as perches. I’m sure that, uh, yeah, a lot of, uh, technicians had to deal with seagulls, uh, hanging around the wind turbines. That has to be a thing. So it just depends on the species, for sure. Which is unique, right? E- every species has its own separate personality and things that it likes to do.
Uh, so in some of the wind turbines, I’m sure the seagulls are probably an annoyance, but they’re gonna let them be. And s- and some other species just don’t wanna be around the wind turbines, so even if you put a pathway through them, they’re just not gonna be [00:27:00] there. That’s an interesting finding.
Matthew Stead: It’s like onshore as well.
I mean, cows and sheep love to stand in the shade of a wind turbine, so they like to hang around. They scratch themselves on the, on the, the stair. You know, they, they rub themselves on the bolt covers. You know, they try and eat stuff. Goats, goats are particularly bad.
Allen Hall: Goats are really aggressive on wind farms for finding wires.
Absolutely. An- anything to eat.
Yolanda Padron: Raccoons.
Allen Hall: Yes. Raccoons.
Yolanda Padron: Snakes.
Allen Hall: The snakes do hide out in the shade. That is one thing you gotta be careful about is, uh, especially in Texas, of kicking over a rock and finding a snake, so make a lot of noise when you’re walking in Texas. That’s the plan. That wraps up another episode of the Uptime: Wind Energy podcast.
If today’s discussion sparked any questions or ideas, we’d love to hear from you. Reach out to us on LinkedIn, and don’t forget to subscribe so you never miss an episode. And if you found some value in today’s conversation, [00:28:00] please leave us a review. It really helps other wind energy professionals discover the show.
So for Rosie, Yolanda, and Matthew, I’m Allen Hall, and I’ll see you here next week on the Uptime: Wind Energy podcast.
-
Greenhouse Gases11 months ago
Guest post: Why China is still building new coal – and when it might stop
-
Climate Change11 months ago
Guest post: Why China is still building new coal – and when it might stop
-
Greenhouse Gases2 years ago嘉宾来稿:满足中国增长的用电需求 光伏加储能“比新建煤电更实惠”
-
Climate Change2 years ago嘉宾来稿:满足中国增长的用电需求 光伏加储能“比新建煤电更实惠”
-
Climate Change2 years ago
Bill Discounting Climate Change in Florida’s Energy Policy Awaits DeSantis’ Approval
-
Renewable Energy8 months agoSending Progressive Philanthropist George Soros to Prison?
-
Carbon Footprint2 years agoUS SEC’s Climate Disclosure Rules Spur Renewed Interest in Carbon Credits
-
Greenhouse Gases11 months ago
嘉宾来稿:探究火山喷发如何影响气候预测








