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Modern Agriculture in Brazil

Introduction Modern Agriculture in Brazil

In the latter half of the 20th century, Brazil experienced a remarkable transformation in its agricultural sector, marking the rise of modern agriculture in the country. 

Historically reliant on traditional farming methods and small-scale operations, Brazil embraced technological advancements and shifted towards large-scale, industrialized agriculture. The adoption of modern farming techniques, including the use of genetically modified crops, precision farming, and advanced machinery, played a pivotal role in boosting productivity and transforming Brazil into a global agricultural powerhouse.

One of the key drivers behind this agricultural revolution was the expansion of agribusinesses and the cultivation of vast areas of previously underutilized land. The Brazilian government, recognizing the economic potential of agriculture, implemented policies to encourage agribusiness investment and infrastructure development. This strategic approach not only propelled Brazil to become one of the world’s leading producers and exporters of soybeans, beef, and poultry but also contributed significantly to the nation’s overall economic growth.

However, the rise of modern agriculture in Brazil has not been without challenges. Environmental concerns, such as deforestation and the impact on biodiversity, have sparked debates over sustainable practices. Striking a balance between agricultural expansion and environmental preservation remains a critical issue as Brazil continues to navigate the complexities of modernizing its agriculture while addressing global concerns about the environmental impact of such developments.

Modern Agriculture in Brazil

Main Brazil agriculture Product

One of Brazil’s main agricultural products is soybeans. Brazil has become a global leader in soybean production, and its vast agricultural expanses, particularly in the central and northern regions, contribute significantly to the world’s soybean supply. The country’s tropical climate and fertile soils provide favorable conditions for soybean cultivation. Soybeans are a crucial commodity for Brazil, both for domestic consumption and export, playing a pivotal role in the nation’s agricultural economy.

Additionally, beef is another major agricultural product in Brazil. The country is one of the world’s largest exporters of beef, with a substantial cattle industry. The vast grasslands, particularly in regions like the Amazon, support extensive cattle ranching. Beef exports from Brazil cater to international markets, meeting the growing global demand for meat products.

These two products, soybeans and beef, showcase Brazil’s prominence in the global agricultural landscape and highlight the diverse agricultural activities that contribute significantly to the nation’s economic output.

Modern Agriculture in Brazil

Main Brazil agriculture Product: Production Data

Here is approximate figures based on the trends up to that point.

1. Soybeans:

   – In the 2020/2021 crop year, Brazil was estimated to produce over 135 million metric tons of soybeans.

   – Brazil is consistently one of the world’s largest soybean producers, with the majority of the production concentrated in states like Mato Grosso, Pará, and Bahia.

2. Beef:

   – Brazil is a major player in global beef production, with millions of metric tons produced annually.

   – In 2020, Brazil was estimated to produce around 10 million metric tons of beef, making it one of the largest beef-producing countries in the world.

   – Exports of beef from Brazil contribute significantly to the country’s economy, and the beef industry is often linked to extensive cattle ranching practices.

Modern Agriculture in Brazil

Modern Agriculture in Brazil: Government Policy

Brazil’s modern agriculture has been significantly influenced by government policies aimed at promoting agricultural development, enhancing productivity, and boosting the nation’s global competitiveness. 

Several key policies have shaped the landscape of modern agriculture in Brazil:

1. Proagro: The Programa de Garantia da Atividade Agropecuária (Proagro) is a government-backed program that provides insurance to farmers, offering financial protection against losses caused by factors such as adverse weather conditions, pests, and diseases. This initiative has encouraged risk mitigation and increased confidence among farmers to adopt modern and technology-intensive farming practices.

2. Prodecer: The Programa de Cooperação Nipo-Brasileira para o Desenvolvimento dos Cerrados (Prodecer) was a collaborative effort between Brazil and Japan to develop the Cerrado region. It focused on infrastructure development, soil conservation, and the introduction of advanced agricultural practices. This initiative played a crucial role in transforming the Cerrado into a productive agricultural area.

3. Agribusiness Expansion: The Brazilian government has actively supported the expansion of agribusinesses by implementing policies that facilitate access to credit, technology, and infrastructure. Favorable credit conditions, subsidies, and incentives have encouraged large-scale agricultural enterprises to adopt modern technologies, including genetically modified crops, precision farming, and advanced machinery.

4. Environmental Policies: In recent years, environmental policies have gained prominence to address concerns related to deforestation and sustainable land use. The Brazilian government has introduced measures to balance agricultural expansion with environmental conservation, such as the Forest Code and initiatives to promote sustainable practices in the Amazon region.

5. Research and Development: Investment in agricultural research and development has been a priority. Institutions like the Brazilian Agricultural Research Corporation (Embrapa) have played a pivotal role in developing and disseminating technologies that enhance crop yields, improve livestock breeds, and promote sustainable farming practices.

These government policies collectively reflect a commitment to fostering a modern, efficient, and sustainable agricultural sector in Brazil, contributing to the country’s status as a major player in global agribusiness.

Modern Agriculture in Brazil

Modern Agriculture in Brazil: Regulations

Several regulations in Brazil govern modern agriculture, addressing aspects such as environmental sustainability, land use, and food safety. 

Here are some key regulations:

1. Forest Code: The Brazilian Forest Code outlines the legal framework for land use, particularly in environmentally sensitive areas like the Amazon rainforest. It establishes rules regarding the preservation of native vegetation on rural properties, including specific requirements for the percentage of land that must be maintained as forest.

2. GMO Regulations: Brazil has regulations governing the development, commercialization, and labeling of genetically modified organisms (GMOs). The National Technical Commission on Biosafety (CTNBio) oversees the approval process for GMOs, ensuring they meet safety and environmental standards.

3. Environmental Licensing: Large-scale agricultural activities, especially those in ecologically important areas, require environmental licensing. This process involves assessing the potential environmental impacts of agricultural projects and implementing measures to mitigate negative effects.

4. Pesticide Regulation:The Brazilian Health Regulatory Agency (ANVISA) regulates the registration, sale, and use of pesticides in agriculture. The government aims to ensure that pesticides meet safety standards to protect both human health and the environment.

5. Land Ownership Limits: There are regulations in place to restrict the concentration of land ownership. The Brazilian Constitution includes provisions to prevent excessive land accumulation, promoting a more equitable distribution of agricultural land.

6. Food Safety Regulations: The National Health Surveillance Agency (ANVISA) and the Ministry of Agriculture regulate food safety standards in Brazil. These regulations cover the entire food production chain, ensuring that agricultural products meet quality and safety requirements.

These regulations play a crucial role in shaping modern agriculture in Brazil by promoting sustainable practices, protecting the environment, and ensuring the safety of agricultural products for both domestic consumption and export.

Modern Agriculture in Brazil

Modern Agriculture in Brazil: Taxes Incentive

Brazil has implemented various tax incentives to stimulate modern agriculture and foster growth in the agricultural sector. 

Some key tax-related measures include:

1. Tax Credits for Agricultural Inputs: The Brazilian government provides tax credits or exemptions on certain agricultural inputs, such as fertilizers, pesticides, and machinery. These incentives aim to reduce the financial burden on farmers and encourage the adoption of modern and efficient farming practices.

2. Credit Programs with Low-Interest Rates: Financial incentives in the form of credit programs with low-interest rates are often made available to farmers. These programs, facilitated by institutions like the National Bank for Economic and Social Development (BNDES), provide farmers with affordable financing for investments in modern agricultural technologies and equipment.

3. Export Incentives: To boost agricultural exports, the government may offer tax incentives to agribusinesses engaged in international trade. These incentives can include tax exemptions or reductions on export-related activities, encouraging the global competitiveness of Brazilian agricultural products.

4. Special Tax Regimes: Certain regions or types of agricultural activities may benefit from special tax regimes. For instance, there might be tax incentives for agribusinesses operating in specific development zones or engaging in activities deemed strategically important for the country’s agricultural growth.

5. Social and Environmental Incentives: In alignment with sustainability goals, the government may provide tax incentives to farmers who adopt environmentally friendly and socially responsible practices. This could include measures to promote sustainable land use, conservation of natural resources, and adherence to social responsibility standards.

6. Research and Development Deductions: Agricultural research and development initiatives may qualify for tax deductions. This encourages investment in technologies and practices that enhance productivity, improve crop yields, and contribute to the overall advancement of modern agriculture.

These tax incentives are designed to create a favorable environment for agricultural development in Brazil, supporting the adoption of advanced technologies, sustainable practices, and the overall growth of the sector. 

Modern Agriculture in Brazil

Modern Agriculture in Brazil: Financial Support

Modern agriculture in Brazil has received significant financial support from both government initiatives and financial institutions. Several key mechanisms aim to provide funding and support to farmers, agribusinesses, and agricultural development. 

Here are some aspects of financial support in Brazilian modern agriculture:

1. National Bank for Economic and Social Development (BNDES): The BNDES plays a crucial role in providing long-term financing for agriculture. It offers credit lines with favorable terms to support investments in modern agricultural equipment, infrastructure, and technology. These funds help farmers upgrade their operations and adopt more efficient practices.

2. Agricultural Credit Programs: The Brazilian government, through agencies like the Ministry of Agriculture, Livestock, and Food Supply (MAPA), implements credit programs to facilitate access to funds for farmers. These programs often offer competitive interest rates and flexible repayment terms to encourage investment in modern farming techniques.

3. Rural Credit Programs: Financial support is extended to rural areas through specific credit programs, such as the Programa Nacional de Fortalecimento da Agricultura Familiar (PRONAF). These programs target small and family farmers, providing them with financial resources to improve productivity, invest in technology, and enhance overall sustainability.

4. Crop Insurance Programs: To manage risks associated with agricultural activities, the government supports crop insurance programs. These programs, often implemented by public and private entities, aim to protect farmers from financial losses due to adverse weather conditions, pests, or diseases.

5. Cooperative Financing: Agricultural cooperatives play a significant role in Brazil’s modern agriculture. Cooperative members often benefit from joint financing initiatives, allowing them to collectively invest in infrastructure, technology, and other resources that contribute to the efficiency of agricultural operations.

6. Research and Innovation Funding: Investment in agricultural research and innovation is supported through funding from various sources, including government grants and partnerships with research institutions. This financial support encourages the development and adoption of cutting-edge technologies that enhance agricultural productivity.

These financial support mechanisms contribute to the development of a robust and competitive modern agricultural sector in Brazil, ensuring that farmers have access to the necessary resources to adopt advanced technologies and sustainable practices.

Modern Agriculture in Brazil

Modern Agriculture in Brazil: Infrastructure

Infrastructure is a crucial component of modern agriculture in Brazil, contributing to the efficiency, productivity, and connectivity of the agricultural sector. 

Here are key aspects of infrastructure related to modern agriculture in Brazil:

1. Transportation Networks: Brazil has invested significantly in transportation infrastructure to facilitate the movement of agricultural products. Well-developed road networks, including highways and rural roads, are essential for transporting crops, livestock, and inputs. Inland waterways and ports are also critical for exporting agricultural commodities.

2. Storage Facilities: Adequate storage facilities are essential for preserving and maintaining the quality of agricultural products. Brazil has invested in modern grain silos, warehouses, and cold storage facilities to store crops, ensuring a steady supply of products to markets.

3. Irrigation Systems: Efficient irrigation systems are vital for optimizing water use in agriculture. Brazil has implemented various irrigation technologies, including drip irrigation and pivot systems, to enhance crop yields and support cultivation in regions with irregular rainfall patterns.

4. Energy Infrastructure: Reliable and affordable energy is crucial for modern agricultural operations. Brazil has a well-established energy infrastructure, including the use of renewable energy sources such as hydropower. This infrastructure supports both on-farm energy needs and processing facilities.

5. Research and Innovation Centers: Agricultural research institutions, such as Embrapa, are part of the agricultural infrastructure. These centers contribute to the development and dissemination of advanced technologies, crop varieties, and sustainable farming practices.

6. Telecommunications: Access to modern telecommunications infrastructure is important for farmers to stay connected, access information, and manage their operations. Broadband internet and mobile networks are essential for facilitating communication, data exchange, and the use of precision farming technologies.

7. Agricultural Machinery and Equipment: The availability of modern and well-maintained agricultural machinery is a crucial aspect of infrastructure. Tractors, combines, and other specialized equipment contribute to the efficiency of farming operations.

8. Financial Infrastructure: Access to financial services is vital for farmers and agribusinesses. Brazil has developed a financial infrastructure that includes banking services, credit facilities, and financial instruments tailored to the needs of the agricultural sector.

9. Educational and Extension Services: Infrastructure for education and extension services supports the dissemination of knowledge and best practices among farmers. Training centers, agricultural schools, and extension services contribute to building the skills and expertise of those involved in agriculture.

The development and maintenance of robust infrastructure are essential for ensuring the resilience and competitiveness of modern agriculture in Brazil. Ongoing investments in these areas contribute to the sustainability and growth of the agricultural sector in the country.

Modern Agriculture in Brazil

Modern Agriculture in Brazil: Private Sector Contributions

The private sector plays a crucial role in driving modern agriculture in Brazil, contributing to the sector’s growth through investments, innovations, and partnerships. 

Here are key aspects of the private sector’s contributions to modern agriculture in Brazil:

1. Agribusiness Investments: Private companies, including agribusiness giants, invest heavily in modernizing Brazil’s agriculture. These investments cover areas such as machinery, precision farming technologies, and research and development to enhance crop yields and overall productivity.

2. Technology Adoption: Private firms in Brazil’s agricultural sector are at the forefront of adopting and promoting advanced technologies. This includes precision agriculture tools, genetically modified organisms (GMOs), and data-driven solutions that optimize resource use and improve efficiency in farming practices.

3. Seed and Biotechnology Companies: Private seed companies and biotechnology firms contribute significantly to the development and dissemination of improved crop varieties. This includes the development of genetically modified seeds that offer resistance to pests, diseases, and adverse environmental conditions.

4. Supply Chain Optimization: Private companies play a pivotal role in optimizing the agricultural supply chain. This involves the development of logistics and distribution networks to ensure timely and efficient transportation of agricultural products from farms to markets.

5. Financial Services for Farmers: Private financial institutions provide a range of financial services tailored to the needs of farmers and agribusinesses. This includes loans, credit facilities, and financial products that help farmers invest in modern equipment, technologies, and infrastructure.

6. Sustainable Agriculture Initiatives: Many private companies in Brazil are actively involved in promoting sustainable agricultural practices. This includes initiatives to reduce environmental impact, promote biodiversity, and address social responsibility concerns. These efforts align with global sustainability goals and consumer preferences for environmentally friendly products.

7. Research and Development Partnerships: Private-sector collaborations with research institutions and universities contribute to ongoing innovations in agriculture. Joint efforts between private companies and academia often lead to the development of new technologies, crop varieties, and farming practices.

The synergy between the public and private sectors has been instrumental in transforming Brazil into a global agricultural powerhouse. 

Private sector contributions continue to drive advancements in technology, sustainability, and efficiency, ensuring that Brazil remains at the forefront of modern agricultural practices.

Modern Agriculture in Brazil

Modern Agriculture in Brazil: Involving Company

The involvement of companies in modern agriculture in Brazil is multifaceted, encompassing various aspects of the agricultural value chain. 

Here are key elements highlighting the role of companies in shaping modern agriculture in Brazil:

1. Agribusiness Giants: Major agribusiness companies in Brazil, such as JBS, Bunge, Cargill, and others, play a pivotal role in the agricultural landscape. These companies are involved in diverse activities, including meat processing, grain trading, and food processing. They contribute to the modernization of agriculture by investing in technology, infrastructure, and supply chain optimization.

2. Precision Agriculture Technology Providers: Companies specializing in precision agriculture technologies are instrumental in modernizing farming practices. They offer solutions like GPS-guided tractors, drone-based monitoring, and data analytics, allowing farmers to optimize resource use, enhance crop yields, and improve overall efficiency.

3. Seed and Biotechnology Firms: Companies engaged in seed development and biotechnology, such as Monsanto (now part of Bayer), DuPont Pioneer, and Syngenta, contribute significantly to modern agriculture. They introduce genetically modified seeds and advanced crop varieties, enhancing resistance to pests, diseases, and environmental stressors.

4. Machinery and Equipment Manufacturers: Companies like John Deere, CNH Industrial, and AGCO provide cutting-edge agricultural machinery and equipment. These companies contribute to modern agriculture by offering farmers access to state-of-the-art tractors, harvesters, and other machinery that enhance efficiency and productivity.

5. Food Processing Companies: Companies involved in food processing, such as Nestlé and BRF, contribute to the modern agricultural landscape by creating demand for high-quality raw materials. They often collaborate with farmers to ensure a stable and sustainable supply of agricultural products for processing

6. Financial Institutions and Agtech Startups: Financial institutions and agtech startups play a role in modern agriculture by providing innovative financial services and technology solutions. Fintech companies offer digital platforms for agricultural finance, while agtech startups introduce novel solutions for farm management, pest control, and data analytics.

7. Retail Chains: Retail companies, both domestic and international, influence modern agriculture by setting quality and sustainability standards for the products they source. This encourages farmers and suppliers to adopt practices that align with consumer preferences for environmentally friendly and ethically produced agricultural products.

The involvement of these companies reflects a collaborative effort to drive innovation, sustainability, and efficiency in Brazil’s modern agriculture. The synergy between different actors in the agricultural value chain contributes to the country’s success as a major global agricultural player.

Here are some specific company names relevant to modern agriculture in Brazil:

1. Agribusiness Giants:

   – JBS

   – Bunge

   – Cargill

   – Louis Dreyfus Company

2. Precision Agriculture Technology Providers:

   – Hexagon Agriculture

   – Trimble

   – AGCO Corporation

3. Seed and Biotechnology Firms:

   – Bayer (which acquired Monsanto)

   – Syngenta

   – Corteva Agriscience (formerly part of DowDuPont)

4. Machinery and Equipment Manufacturers:

   – John Deere

   – CNH Industrial (Case IH, New Holland)

   – AGCO Corporation (Massey Ferguson, Fendt)

5. Food Processing Companies:

   – Nestlé

   – BRF (Brazil Foods)

   – Marfrig Global Foods

   – JBS (also involved in meat processing)

6. Financial Institutions and Agtech Startups:

   – Banco do Brasil

   – Santander Brasil

   – Nubank (provides digital financial services)

   – Agrofy (agtech platform)

7. Retail Chains:

   – GPA (Grupo Pão de Açúcar)

   – Carrefour Brasil

   – Walmart Brasil (now Grupo Big)

These companies represent a diverse range of stakeholders involved in various aspects of modern agriculture in Brazil, from production and processing to technology and finance.

Modern Agriculture in Brazil

Modern Agriculture in Brazil: International Collaborations

Brazil has engaged in numerous international collaborations and partnerships related to modern agriculture. These collaborations involve knowledge exchange, technology transfer, and joint initiatives aimed at improving agricultural practices and sustainability. 

Some notable examples include:

1. Embrapa’s Collaborations: The Brazilian Agricultural Research Corporation (Embrapa) has established collaborations with several international research institutions, universities, and agricultural organizations. These collaborations focus on sharing expertise, conducting joint research, and addressing global agricultural challenges.

2. Brazil-United States Agricultural Partnership: Brazil and the United States have engaged in collaborations to promote agricultural research and trade. Initiatives between the two countries often involve knowledge-sharing on technologies, research findings, and best practices in modern agriculture.

3. International Research Organizations: Brazil collaborates with global agricultural research organizations, such as the Consultative Group on International Agricultural Research (CGIAR), to address issues related to food security, climate change, and sustainable agriculture.

4. South-South Cooperation: Brazil participates in South-South cooperation initiatives, collaborating with other developing countries to share agricultural knowledge and experiences. This includes partnerships with African nations to promote sustainable agricultural practices and enhance food security.

5. Bilateral Agreements: Brazil has entered into bilateral agreements with various countries to foster cooperation in agriculture. These agreements often cover areas such as technology transfer, research collaboration, and joint initiatives to address common challenges in the agricultural sector.

6. European Union Collaborations: Brazil has engaged in collaborations with the European Union (EU) to address agricultural and environmental issues. These collaborations may involve dialogue on sustainable farming practices, trade agreements, and environmental conservation measures.

7. FAO and UN Collaborations: Brazil collaborates with international organizations like the Food and Agriculture Organization (FAO) and the United Nations (UN) to contribute to global efforts in achieving sustainable development goals related to agriculture, food security, and rural development.

These international collaborations underscore Brazil’s commitment to participating in the global agricultural community, sharing knowledge, and contributing to solutions for shared challenges. The exchange of ideas and technologies through these collaborations helps enhance the resilience and sustainability of modern agriculture in Brazil and beyond.

Modern Agriculture in Brazil

Modern Agriculture in Brazil: The Adoption of Technology and AI

The adoption of technology and artificial intelligence (AI) in modern agriculture has been a transformative force in Brazil, contributing to increased efficiency, precision, and sustainability. 

Here are key aspects of how technology and AI have influenced modern agriculture in the country:

1. Precision Agriculture: Farmers in Brazil have embraced precision agriculture technologies, including GPS-guided tractors, drones, and sensors. These tools enable precise management of resources such as water, fertilizers, and pesticides, optimizing inputs and reducing environmental impact.

2. Farm Management Software: The use of farm management software and digital platforms has become widespread. These tools provide farmers with data analytics, crop monitoring, and decision support systems, allowing for better-informed and data-driven decision-making.

3. IoT (Internet of Things) Applications: IoT technologies are deployed in agriculture to create smart farming systems. Sensors and devices collect real-time data on soil moisture, weather conditions, and crop health, allowing farmers to monitor and manage their operations remotely.

4. AI for Crop Monitoring: AI algorithms analyze satellite imagery and drone data to assess crop health, detect diseases, and predict yields. This enables early intervention and more targeted use of resources, leading to improved crop outcomes.

5. Genomic Technologies: Advances in genomics and biotechnology have led to the development of genetically modified crops with enhanced traits such as resistance to pests and diseases. Biotechnology companies in Brazil are actively involved in research and development to improve crop varieties.

6. Supply Chain Optimization: Technology is employed to optimize the agricultural supply chain. Blockchain and digital platforms are used to trace the origin of agricultural products, ensuring transparency and accountability in the supply chain.

7. AI in Livestock Management: AI is applied to livestock farming for monitoring animal health, optimizing feeding practices, and predicting breeding patterns. Smart technologies, such as automated milking systems, are increasingly adopted in the dairy sector.

8. Robotics in Agriculture: Robotics is making inroads in tasks such as harvesting, weeding, and sorting. Automated machinery equipped with AI algorithms can perform labor-intensive tasks more efficiently than traditional methods.

The adoption of technology and AI in Brazilian agriculture reflects a commitment to modernizing the sector, increasing productivity, and addressing environmental and resource challenges. While challenges like access to technology and digital literacy exist, ongoing efforts aim to make advanced agricultural technologies more accessible to farmers across the country.

Modern Agriculture in Brazil

Modern Agriculture in Brazil: Marketing Penetration

Marketing penetration in modern agriculture in Brazil involves strategies to promote agricultural products, technologies, and practices, both domestically and internationally. 

Here are key elements related to marketing penetration in the context of modern agriculture in Brazil:

1. Export Promotion: Brazil has been actively promoting its agricultural products on the international market. Marketing efforts focus on showcasing the country’s capacity as a major exporter of commodities such as soybeans, beef, poultry, and sugar. Trade agreements and participation in international fairs contribute to expanding market reach.

2. Digital Marketing and Platforms: The use of digital marketing tools and online platforms has grown in the agricultural sector. Agribusinesses leverage social media, websites, and e-commerce platforms to reach farmers, suppliers, and international buyers. This facilitates direct communication, product promotion, and market access.

3. Branding Brazilian Agriculture: The promotion of a positive image for Brazilian agriculture is part of marketing strategies. Highlighting sustainable practices, quality standards, and adherence to environmental regulations contributes to building a strong brand for Brazilian agricultural products.

4. Technology Promotion: Companies involved in agricultural technology (Agtech) actively market their solutions to farmers. This includes precision agriculture tools, farm management software, and IoT devices. Demonstrations, workshops, and online campaigns are used to educate farmers about the benefits of adopting modern technologies.

5. Partnerships with Retail Chains: Agribusinesses collaborate with retail chains to market their products to consumers. This involves creating marketing campaigns that emphasize the quality, safety, and sustainability of agricultural products, meeting the preferences of increasingly conscious consumers.

6. Educational Programs: Marketing strategies also include educational programs aimed at farmers. These programs provide information about the benefits of adopting modern agricultural practices, the use of advanced technologies, and adherence to sustainability standards.

7. Government Promotion: The Brazilian government plays a role in marketing the country’s agricultural sector. Initiatives are launched to promote Brazilian agribusiness on the global stage, emphasizing the nation’s capability to meet global food demands sustainably.

8. Certification Programs: Agricultural products meeting certain standards may receive certifications, such as organic or fair trade certifications. These certifications contribute to market penetration by appealing to consumers who prioritize specific qualities in their agricultural products.

Effective marketing penetration strategies contribute to the success and competitiveness of modern agriculture in Brazil, ensuring that the sector can reach diverse markets and capitalize on the strengths of its agricultural products and technologies.

Modern Agriculture in Brazil

Modern Agriculture in Brazil: Holding and Organization

Modern agriculture in Brazil involves various types of holdings and organizations, reflecting the diversity of agricultural activities and the scale of operations. 

Here are key elements related to holding and organization structures in Brazilian agriculture:

1. Large Agribusiness Holdings: Brazil is home to large agribusiness holdings that operate on a massive scale. These holdings often cover extensive areas of land and engage in the production of commodities such as soybeans, sugarcane, and beef. They typically leverage advanced technologies and modern farming practices for efficiency.

2. Family Farms: Family farming remains a significant component of Brazilian agriculture. Many rural families operate smaller farms, contributing to the country’s overall agricultural output. Government initiatives, such as the Programa Nacional de Fortalecimento da Agricultura Familiar (PRONAF), provide support to family farmers, including credit and technical assistance.

3. Cooperatives: Agricultural cooperatives play a crucial role in Brazil’s agricultural landscape. These cooperative structures bring together farmers to collectively engage in activities such as production, processing, and marketing. Cooperative models enhance the bargaining power of individual farmers and promote shared resources and knowledge.

4. Integrated Farming Systems: Some modern agricultural practices in Brazil involve integrated farming systems, where farmers combine different agricultural activities on the same land. This could include combining crop cultivation with livestock farming or agroforestry practices.

5. Research Institutions: Agricultural research institutions, with Embrapa being a notable example, contribute to the organization of modern agriculture in Brazil. These institutions focus on developing and disseminating technologies, crop varieties, and best practices that enhance productivity and sustainability.

6. Technology and Agribusiness Startups: The rise of technology and agribusiness startups has brought innovation to Brazilian agriculture. These startups often focus on specific aspects of the agricultural value chain, providing solutions such as precision farming technologies, data analytics, and supply chain optimization.

7. Industry Associations: Various industry associations and trade organizations exist to represent the interests of different sectors within Brazilian agriculture. These organizations play a role in policy advocacy, knowledge exchange, and fostering collaboration among stakeholders.

8. Government Agencies:  Government agencies at both the federal and state levels are involved in organizing and regulating agriculture. Agencies such as the Ministry of Agriculture, Livestock, and Food Supply (MAPA) oversee policies, regulations, and programs that impact the agricultural sector.

The diverse nature of holdings and organizations in Brazilian agriculture reflects the complexity and richness of the sector. 

The coexistence of large-scale agribusinesses, family farms, cooperatives, research institutions, and startups contributes to the resilience and adaptability of modern agriculture in Brazil.

Modern Agriculture in Brazil

Modern Agriculture in Brazil: Distribution and Supply chain

Modern agriculture in Brazil is characterized by large-scale production and technological advancements. The country’s vast land area allows for diverse agricultural activities. Major crops include soybeans, sugarcane, corn, and coffee. Distribution and supply chain processes are crucial for the success of this sector.

1. Distribution:

   – Geographical Diversity: Brazil’s agriculture is distributed across various regions due to its diverse climate. The Southern and Central-Western regions are key areas for soybean production, while sugarcane thrives in the Southeast.

   – Transportation Infrastructure: Brazil relies heavily on road and rail networks to transport agricultural products. The country has invested in improving infrastructure to enhance connectivity between production areas and markets.

2. Supply Chain:

   – Agribusiness Giants: Large agribusiness companies play a significant role in the supply chain. They often integrate farming, processing, and distribution to streamline operations and increase efficiency.

   – Export Focus: Brazil is a major exporter of agricultural products. Ports like Santos and Paranaguá are crucial for exporting commodities like soybeans. The supply chain emphasizes reaching global markets efficiently.

3. Technology and Innovation:

   – Precision Agriculture: Brazil has embraced precision agriculture, using technologies like GPS-guided tractors and drones. This enhances efficiency in resource use and crop management.

   – Biotechnology: Genetically modified crops, especially soybeans, have been widely adopted, contributing to increased yields and resistance to pests.

4. Challenges:

   – Infrastructure Gaps: Despite improvements, some regions still face challenges with inadequate transportation infrastructure, impacting the smooth flow of goods.

   – Environmental Concerns: Intensive agriculture has raised environmental concerns, leading to discussions on sustainable practices and conservation efforts.

5. Government Policies:

   – Supportive Policies: The Brazilian government has implemented policies to support the agricultural sector, including subsidies and incentives for technology adoption.

   – Land Use Regulations: Striking a balance between agricultural expansion and environmental conservation remains a challenge, prompting ongoing discussions on land use regulations.

In summary, Brazil’s modern agriculture relies on technology, large-scale production, and efficient distribution to meet domestic and international demand. The distribution and supply chain dynamics are influenced by geographical diversity, transportation infrastructure, and the role of agribusiness giants in the sector. Ongoing challenges include addressing environmental concerns and improving infrastructure for sustainable growth.

Modern Agriculture in Brazil

Modern Agriculture in Brazil: Human Resources Development

Human resources development is a critical aspect of modern agriculture in Brazil, focusing on building the skills, knowledge, and capacities of individuals involved in the agricultural sector. 

Here are key elements related to human resources development in the context of modern agriculture in Brazil:

1. Agricultural Education Institutions: Brazil has agricultural schools, universities, and research institutions dedicated to agricultural education. These institutions, such as the Federal Rural University of Rio de Janeiro (UFRRJ), play a crucial role in providing formal education and training in agriculture, agribusiness, and related fields.

2. Vocational Training Programs: Vocational training programs are designed to equip individuals with practical skills needed for various roles in agriculture. These programs often focus on specific skills such as crop management, livestock care, machinery operation, and precision agriculture technologies.

3. Extension Services: Agricultural extension services play a vital role in disseminating knowledge and best practices to farmers. Extension agents provide on-the-ground support, training, and information about the latest advancements in agricultural technologies and sustainable farming practices.

4. Research and Innovation: Human resources development in agriculture includes investing in research and development capabilities. Scientists, researchers, and agronomists contribute to innovation by developing new crop varieties, sustainable practices, and technologies that enhance productivity.

5. Technology Training: Training programs on the use of modern agricultural technologies, such as precision farming tools, drones, and data analytics, are essential for farmers and agricultural professionals. Workshops, seminars, and hands-on training sessions help individuals adopt and maximize the benefits of technology.

6. Entrepreneurship Education: Given the diverse nature of agricultural activities, programs focusing on entrepreneurship education help individuals develop business skills. This is particularly important for farmers and agribusiness professionals to manage their operations effectively.

7. Partnerships with Private Sector and NGOs: Collaboration with the private sector and non-governmental organizations (NGOs) facilitates the implementation of training programs. These partnerships can address specific needs, provide resources, and offer expertise to enhance human resources in agriculture.

8. Government Initiatives: Government-led initiatives, such as the National Program for Strengthening Family Agriculture (PRONAF), include components focused on training and capacity building. These programs aim to empower small farmers and rural communities through education and skill development.

9. Promotion of Sustainable Practices: Training programs often emphasize sustainable agricultural practices. This includes education on soil conservation, water management, agroecology, and biodiversity conservation, aligning with global sustainability goals.

By investing in human resources development, Brazil ensures that its agricultural workforce is equipped with the knowledge and skills needed to navigate the complexities of modern agriculture. This holistic approach contributes to the overall sustainability, innovation, and competitiveness of the agricultural sector in the country.

Amazon for Brazil Agriculture

The Important of Amazon for Brazil Agriculture

The Amazon rainforest plays a crucial role in the broader context of Brazil’s agriculture, influencing various aspects that are vital for the country’s economy and environment. 

Here are several important aspects of the Amazon for Brazil’s agriculture:

1. Biodiversity and Genetic Resources

The Amazon is a global biodiversity hotspot, and its rich genetic resources have implications for agriculture. The region contains a vast array of plant and animal species, some of which may have potential applications in crop improvement, pest resistance, and other aspects of agricultural development.

2. Climate Regulation

The Amazon rainforest has a significant impact on regional and global climate patterns. The vast forest acts as a carbon sink, absorbing large amounts of carbon dioxide. This climate regulation is crucial for maintaining stable weather conditions, including rainfall patterns, which can directly affect agricultural productivity in Brazil.

3. Water Cycle

The Amazon plays a key role in the water cycle, influencing precipitation patterns and the flow of rivers. The moisture released by the forest contributes to rainfall not only in the Amazon basin but also in other regions of Brazil. This is vital for sustaining agriculture, especially in areas outside the Amazon that rely on these water sources.

4. Nutrient Cycling

The rainforest’s complex ecosystem is integral to nutrient cycling. Decomposition of organic matter in the forest contributes to soil fertility. Nutrient-rich soils support diverse plant life and can potentially influence agricultural practices, especially in neighboring regions.

5. Medicinal Plants

The Amazon is known for its vast array of plant species, including those with medicinal properties. The knowledge gained from the indigenous communities living in and around the Amazon can provide insights into medicinal plants that may have applications in agriculture, including pest control or crop protection.

6. Cultural and Indigenous Contributions

Indigenous communities in the Amazon have unique knowledge of sustainable agricultural practices and traditional crop varieties. Their agricultural techniques, developed over centuries, contribute to biodiversity conservation and offer lessons for sustainable farming practices.

7. Global Impact on Climate Change

The deforestation and degradation of the Amazon rainforest have global implications for climate change. The release of stored carbon into the atmosphere contributes to greenhouse gas emissions, affecting weather patterns and potentially influencing agricultural productivity on a global scale.

8. Economic Opportunities

While preserving the Amazon is crucial for ecological balance, sustainable economic activities such as agroforestry and non-timber forest products can provide livelihoods for local communities. Balancing conservation with sustainable economic development is a challenge that directly impacts the agricultural landscape.

The Amazon also faces threats from deforestation, illegal logging, and agricultural expansion, which can have negative consequences for the factors mentioned above. Balancing the needs of agriculture with conservation efforts is a complex challenge that requires careful planning and sustainable practices to ensure the long-term health of both the Amazon and Brazil’s agriculture.

Modern Agriculture in Brazil

The Future of Modern Agriculture in Brazil

The future of modern agriculture in Brazil holds several key trends and challenges, reflecting the dynamic nature of the sector. 

Here are some aspects that may shape the future of agriculture in Brazil:

1. Technological Advancements: Continued advancements in technology, including precision agriculture, robotics, and artificial intelligence, are likely to play a pivotal role. Farmers will increasingly adopt smart farming practices to optimize resource use, enhance productivity, and reduce environmental impact.

2. Sustainable Agriculture Practices: There is a growing emphasis on sustainability in agriculture globally, and Brazil is no exception. Practices that promote soil health, biodiversity conservation, and reduced environmental impact are likely to gain prominence. Sustainable certifications and eco-friendly farming methods may become more widespread.

3. Climate Resilience: Given the challenges posed by climate change, the agricultural sector in Brazil will likely focus on building resilience. This includes developing crops and practices that can withstand changing climate conditions, as well as implementing adaptive strategies to mitigate the impact of extreme weather events.

4. Digital Agriculture and Connectivity: The use of digital technologies for farm management, data analytics, and connectivity will continue to expand. Farmers will increasingly rely on data-driven decision-making, and improved connectivity in rural areas will support the adoption of these technologies.

5. International Trade and Market Access: Brazil is a major player in global agricultural markets. The future will likely see increased efforts to expand international trade, negotiate favorable trade agreements, and meet global demand for agricultural products while adhering to quality and sustainability standards.

6. Biotechnology and Genomic Research: Advances in biotechnology and genomics will contribute to the development of improved crop varieties with enhanced traits. Research in this area may focus on addressing challenges such as pest resistance, disease tolerance, and increased nutritional content.

7. Policy and Regulatory Frameworks: Government policies will continue to shape the direction of agriculture in Brazil. Policies that support sustainable practices, research and development, and infrastructure development will be critical. Balancing economic growth with environmental conservation will be an ongoing challenge.

8. Consumer Preferences: Changing consumer preferences, both domestically and internationally, will influence the types of products demanded from the agricultural sector. An increasing focus on health, sustainability, and ethical production may shape the types of crops and farming practices prioritized.

9. Education and Skill Development: Human capital will remain a key factor in the future of agriculture. Efforts to educate and develop the skills of farmers, researchers, and agribusiness professionals will be crucial for staying abreast of technological advancements and evolving global trends.

10. Ecosystem Services Recognition: There may be increased recognition of the importance of ecosystems services provided by natural habitats, including the Amazon rainforest. Efforts to balance agricultural expansion with conservation and restoration of ecosystems may gain momentum.

While the future of modern agriculture in Brazil presents opportunities for growth and innovation, addressing challenges such as environmental sustainability, climate change, and social equity will be essential for ensuring a resilient and thriving agricultural sector. The ability to adapt to changing circumstances and embrace sustainable practices will be key to the sector’s long-term success.

Modern Agriculture in Brazil

Conclusion for Modern Agriculture in Brazil

Modern agriculture in Brazil stands at a pivotal juncture, characterized by a dynamic interplay of technological advancements, sustainability imperatives, and global market dynamics. 

The nation has evolved into a major agricultural powerhouse, contributing significantly to global food production and trade. However, the future trajectory of Brazilian agriculture is shaped by several key factors.

Technological innovation, including precision agriculture, artificial intelligence, and biotechnology, is driving efficiency and productivity gains. The adoption of these advanced practices positions Brazil to meet the challenges of a changing climate and evolving consumer preferences. Sustainability is emerging as a central theme, with efforts to balance economic growth with environmental conservation, acknowledging the critical role of ecosystems like the Amazon.

Challenges persist, particularly in navigating the delicate balance between agricultural expansion and conservation, ensuring equitable distribution of resources, and addressing the impacts of climate change. The role of education and skill development becomes paramount, empowering farmers and agribusiness professionals to harness the full potential of emerging technologies.

As Brazil charts the course for the future of its agriculture, it faces the dual responsibility of meeting global demands while safeguarding its natural resources. The continued success of modern agriculture in Brazil hinges on strategic policymaking, international collaborations, and a commitment to sustainable practices that not only ensure economic prosperity but also preserve the nation’s environmental treasures for generations to come. In this intricate dance of progress and preservation, Brazil’s agriculture holds the promise of a resilient and adaptive future.

https://www.exaputra.com/2023/12/the-rise-of-modern-agriculture-in-brazil.html

Renewable Energy

A Guide for Solar & Battery Storage for Commercial Properties

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If you own or manage a commercial property in Australia right now, energy costs are probably already giving you a headache.

Power prices jump around, demand charges can be high, and tenants are asking tougher questions about sustainability and operating costs.

That’s why solar paired with battery storage has moved far beyond a nice idea. For most of the Australian businesses, it’s now a practical, commercial decision.

Wandering what’s more?

Well, in businesses, solar and batteries aren’t just about cutting emissions; they also protect cash flow, improve property value, and give businesses greater control in an ever-changing energy system.

So, now let’s walk through how it all works, what incentives are available, and why more Australian businesses are making the move now in 2026!

Why Solar & Batteries Matter for Australian Commercial Properties?

Commercial energy use is big and often expensive. Every day, offices, retail stores, manufacturing facilities, and warehouses consume large amounts of electricity during daylight and after dark.

Traditionally, businesses pay peak rates for grid energy during working hours, and then again for nighttime power. That’s where solar plus storage flips the script:

Solar Panels: Cutting Your Daytime Costs

Solar PV systems convert sunlight into electricity. In Australia’s abundant sun-rich climate, rooftop solar is a no-brainer:

  • Australia has among the highest rooftop solar penetration in the world, and commercial rooftops have huge capacity for panels.
  • Solar reduces dependency on the grid during peak rates, ensuring immediate savings on energy bills.

Battery Storage: Power After the Sun Goes Down!

Solar alone is great, but what if your business still needs power at night? So here comes the power of battery storage.

Batteries store surplus solar power generated throughout the day and discharge it when you need it most, such as during evening peak times or during grid outages.

For many commercial setups, having battery storage means:

  • Lower peak demand charges.
  • Backup power resilience during blackouts.
  • More control over energy usage patterns.

Solar panels combined with solar storage can transform a commercial property from a passive energy consumer into an active energy optimiser.

Government Rebates & Incentives for Solar: 2026 Updates!

In Australia, government rebates and
incentives
in 2026 are strengthening the business case for commercial solar and battery systems.

The federal government has dramatically expanded support, making it a particularly compelling time for businesses to
act.

1. Renewable Energy Rebates Under Small-Scale Technology Certificates

Both solar panels and battery storage systems qualify for Small-scale
Technology Certificates
(STCs). These certificates are tradable, that translate into a direct upfront
discount on installation costs:

  • Batteries earn STCs based on their usable capacity, and these are typically applied as an instant point-of-sale
    discount via your installer.
  • Solar PV systems also attract STCs, which substantially reduce the net price.

2. Cheaper Home Batteries Program Extended to Businesses

Since 1 July 2025, the federal Cheaper Home Batteries Program has been
offering significant battery rebates and, importantly, businesses can access benefits too.

Key points:

  • Eligible batteries installed alongside solar PV systems receive STC-based rebates.
  • For 2026:
  • Batteries installed before 1 May 2026 have a higher STC factor (a higher rebate per kWh).

    From 1 May 2026, the rebate is tiered by battery size, with higher support for the first 14kWh and gradually less
    for
    larger capacities.

  • The program runs until 2030, but rebate amounts decrease each year. This means the earlier you install, the more
    you benefit.

The federal rebate is available to commercial
properties
as long as the system meets eligibility requirements.

3. State-Based Rebates & Incentives

State-level
incentives can stack
on top of federal support, giving commercial properties even more value:

  • NSW Peak Demand Reduction Scheme (PDRS) offers additional battery rebates and VPP connection bonus payments.
  • Victoria’s Business Renewables Fund and other local programs support larger solar and storage projects.
  • Queensland offers interest-free loans and targeted incentives.
  • South Australia’s Home Battery Scheme provides rebates for battery installations tied to smart energy networks.

However, these vary greatly by region, so businesses should talk with accredited installers and local energy agencies
to understand stacking opportunities.

4. Tax & Depreciation Benefits

Beyond rebates, commercial solar and storage investments can be tax-effective:

  • Immediate or accelerated depreciation on assets (subject to ATO rules) can produce valuable upfront tax
    deductions.
  • Solar + battery systems are treated as capital assets, which can accelerate the return on investment.

How to Choose the Right Solar & Battery System for Your Commercial Property?

Choosing the
right system
isn’t one-size-fits-all. Here’s a step-by-step guide for sizing and designing what you need.

Step 1: Energy Audit

Start with a detailed energy audit to understand daily and seasonal load patterns. This informs:

  • How much solar capacity do you need
  • What battery size makes sense for backup power

For instance, if you have a warehouse with high daytime loads, you might prioritise solar capacity. For an office
that uses power after hours, a larger battery makes more sense.

Step 2: Solar Panel Selection

Commercial systems range from tens to hundreds of kilowatts (kW). System options:

  • 20–100 kW rooftop systems for small-medium businesses
  • 100 kW and beyond for large facilities or multi-site portfolios

Larger arrays often qualify for LGCs (Large-scale Generation Certificates) if they exceed the STC threshold, which is
another way to reduce costs.

Step 3: Battery Sizing

Battery capacity is measured in kilowatt-hours (kWh). So, ask yourself:

  • Do you want to reduce peak demand charges?
  • Do you want emergency backup?
  • How many hours of stored power do you need?

A battery that is about 20–50% of peak demand can deliver strong savings, but your energy audit will help refine this
estimate.

Smart Management & VPP Integration

Did you know that nowadays most modern batteries are VPP-capable? This means they can join the Virtual Power Plant
network

This connection allows aggregated batteries to transmit stored energy into the grid at peak times for added value,
often with payments from network operators or utilities.

Also look for:

  • Energy management software to optimise usage.
  • Time-of-use tariff compatibility to shift power consumption into cheaper periods.

Commercial Solar in 2026: What the Financial Returns Look Like

Undoubtedly, commercial solar with battery storage isn’t just a green, sustainable solution; it’s financially savvy.

How? Let’s find out!

Reduced Energy Bills

Solar power offsets expensive grid power during daylight. Add batteries, and you reduce:

  • Peak demand charges
  • Night-time grid consumption

Savings vary by site, but on average, many businesses report reductions of 20–50% or more in annual energy spend.

Rebate Impact

Solar STCs can knock thousands off upfront costs. Battery rebates, especially in early 2026, are significant.

An 10kWh commercial battery could attract several thousand dollars in rebate support alone.

Payback Period

For many commercial setups, payback periods of 3 to 7 years are achievable, and tax benefits can further improve them.

In Australia, major tenants also value energy-independent buildings, supporting higher rental premiums.

Solar Panel Policies & Market Trends| What to Watch!

Honestly, understanding government policies and trends in the Australian energy market isn’t everyone’s cup of tea. It takes proper time and research to find your exact match.

So, here are key trends and cautions you should take into account while planning to install solar and battery storage in your property:

Rebate Step-Downs

Rebate values decrease every year through to 2030. Therefore, later installs receive less government support than earlier ones. So, timing matters; act fast.

Feed-In Tariffs Are Evolving

In Australia, state feed-in tariffs for exported solar vary widely and are under review.

In some states, such as Victoria, midday solar export credits have been proposed to drop sharply, making batteries for storing and using your own power even more valuable.

Installer Accreditation

To claim rebates, systems must be installed by accredited professionals and use certified equipment. This ensures compliance and warranty security.

Future Growth Forecast for Commercial Solar in 2030: What’s Next!

Australia’s energy landscape is changing fast. More renewables are coming onto the grid, batteries are becoming essential for keeping the system stable, and policymakers and market operators are rolling out new ways for distributed energy resources (DERs) to create value.

Therefore, solar paired with batteries is no longer just about generating power; it’s increasingly seen as a flexible asset that can support the grid when it’s needed most.

At the same time, commercial microgrids are gaining traction, with groups of buildings sharing solar and storage to boost reliability, cut energy costs, and better manage peak demand.

Taken together, these shifts are making commercial solar more valuable than ever, cementing its role as a key part of Australia’s move toward a smarter, more decentralised, and low-carbon energy system by 2030.

Final Thought | Why 2026 Is the Year to Act?

If you’re a commercial property owner, don’t worry much! In Australia in 2026, solar and battery storage isn’t just a sustainability project; it’s a strategic investment.

Also, with current government rebates, state incentives, and tax benefits, you can dramatically lower upfront costs while future-proofing your energy usage.

Plus, as grid export tariffs evolve and demand charges climb, the economics of self-generated and self-stored power only get stronger.

This is the moment when smart businesses make the leap not just to cut costs, but to take control of their energy future.

Wanna join this energy revolution? Contact Cyanergy, your most trusted partner, and win a free solar quote today!

Your Solution Is Just a Click Away

The post A Guide for Solar & Battery Storage for Commercial Properties appeared first on Cyanergy.

A Guide for Solar & Battery Storage for Commercial Properties

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Renewable Energy

Morten Handberg Breaks Down Leading Edge Erosion

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Weather Guard Lightning Tech

Morten Handberg Breaks Down Leading Edge Erosion

Morten Handberg, Uptime’s blade whisperer, returns to the show to tackle leading edge erosion. He covers the fatigue physics behind rain erosion, why OEMs offer no warranty coverage for it, how operators should time repairs before costs multiply, and what LEP solutions are working in the field.

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 YouTubeLinkedin 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!

Welcome to Uptime Spotlight, shining Light on Wind. Energy’s brightest innovators. This is the Progress Powering Tomorrow.

Allen Hall: Morten, welcome back to the program.

Morten Handberg: Thanks, Allen. It’s fantastic to be back on on, on the podcast. Really excited to, uh, record an episode on Erosion Today.

Allen Hall: Wow. Leading as erosion is such a huge worldwide issue and. Operators are having big problems with it right now. It does seem like there’s not a lot of information readily available to operators to understand the issue quite yet.

Morten Handberg: Well, it, I mean, it’s something that we’ve been looking at for the, at least the past 10 years. We started looking at it when I was in in DONG or as it back in 2014. But we also saw it very early on because we were in offshore environment, much harsher. Uh, rain erosion conditions, and you were also starting to change the way that the, the, uh, the coatings [00:01:00]that were applied.

So there was sort of a, there was several things at play that meant that we saw very early on, early on offshore.

Allen Hall: Well, let’s get to the basics of rain erosion and leading edge erosion. What is the physics behind it? What, what happens to the leading edges of these blades as rain? Impacts them.

Morten Handberg: Well, you should see it as um, millions of, of small fat, uh, small fatigue loads on the coating because each raindrop, it creates a small impact load on the blade.

It creates a rail wave that sort of creates a. Uh, share, share loads out on, uh, into the coating that is then absorbed by the coating, by the filler and and so on. And the more absorbent that your substrate is, the longer survivability you, you’re leading into coating will have, uh, if you have manufacturing defects in the coating, that will accelerate the erosion.

But it is a fatigue effect that is then accelerated or decelerate depending on, uh, local blade conditions.

Allen Hall: Yeah, what I’ve seen in the [00:02:00] field is the blades look great. Nothing. Nothing. You don’t see anything happening and then all of a sudden it’s like instantaneous, like a fatigue failure.

Morten Handberg: I mean, a lot of things is going on.

Uh, actually you start out by, uh, by having it’s, they call, it’s called mass loss and it’s actually where the erosion is starting to change the material characteristics of the coating. And that is just the first step. So you don’t see that. You can measure it in a, um, in the laboratory setting, you can actually see that there is a changing in, in the coating condition.

You just can’t see it yet. Then you start to get pitting, and that is these very, very, very small, almost microscopic chippings of the coating. They will then accelerate and then you start to actually see the first sign, which is like a slight, a braided surface. It’s like someone took a, a fine grain sandpaper across the surface of the plate, but you only see it on the leading edge.

If it’s erosion, it’s only on the center of the leading edge. That’s very important. If you see it on the sides and further down, then it’s, it’s [00:03:00] something else. Uh, it’s not pure erosion, but then you see this fine grain. Then as that progresses, you see more and more and more chipping, more and more degradation across the, the leading edge of the blade.

Worse in the tip of it, less so into the inner third of the blade, but it is a gradual process that you see over the leading edge. Finally, you’ll then start to see the, uh, the coating coming off and you’ll start to see exposed laminate. Um, and from there it can, it can accelerate or exposed filler or laminate.

From there, it can accelerate because. Neither of those are actually designed to handle any kind of erosion.

Allen Hall: What are the critical variables in relation to leading edge erosion? Which variables seem to matter most? Is it raindrop size? Is it tip speed? What factors should we be looking for?

Morten Handberg: Tip speeds and rain intensity.

Uh, obviously droplet size have an impact, but. But what is an operator you can actually see and monitor for is, well, you know, your tip speed of the blade that matters. Uh, but it is really the rain intensity. So if you have [00:04:00] sort of a, an average drizzle over the year, that’s a much better condition than if you have like, you know, showers in, in, in, in a, in a few hour sessions at certain points of time.

Because then, then it becomes an aggressive erosion. It’s not, it’s, you don’t, you get much higher up on the. On the, on the fatigue curve, uh, then if it’s just an average baseline load over long periods of time,

Allen Hall: yeah, that fatigue curve really does matter. And today we’re looking at what generally is called VN curves, velocity versus number of impacts, and.

The rain erosion facilities I’ve seen, I’ve been able to, to give some parameters to, uh, provide a baseline or a comparison between different kinds of coatings. Is is that the, the standard as everybody sees it today, the sort of the VN curve

Morten Handberg: that is what’s been developed by this scientific, uh, community, these VN curve, that that gives you some level of measure.

I would still say, you know, from what we can do in a rain erosion tester to what is then actually going on [00:05:00] the field is still very two very, very, very different things you can say. If you can survive a thousand hours in a rain erosion tester, then it’s the similar in the field that doesn’t really work like that.

But there are comparisons so you can do, you know, uh, a relationship study, uh, between them. And you can use the VN curves to determine the ERO erosion aggressiveness. Field. We did that in the bait defect forecasting that we did in wind pile up with DCU back in 2019, uh, where we actually looked at rain erosion across Europe.

Uh, and then the, uh, the actual erosion propagation that we saw within these different sites, both for offshore and for onshore, where we actually mapped out, um, across Europe, you know, which areas will be the most erosion prone. And then utilize that to, to then mo then, then to determine what would be the red, the best maintenance strategy and also, uh, erosion, uh, LEP, uh, solution for that wind farm.

Allen Hall: Oh, okay. Uh, is it raindrop size then, or just [00:06:00] quantity of raindrops? Obviously drizzle has smaller impact. There’s less mass there, but larger raindrops, more frequent rain.

Morten Handberg: If you have showers, it tends to be larger drops. Right. So, so they kind of follow each other. And if it’s more of a drizzle. It will be smaller raindrops.

They typically follow each other. You know, if you’ve been outside in a rainstorm before we just showered, you would have sense that these are, these are much higher, you know, raindrop sizes. So, so there is typically an a relation between raindrop size and then showers versus a drizzle. It’s typically more fine, fine grain rain drops.

Allen Hall: And what impact does dirt and debris mixed in with the rain, uh, affect leading edge erosion? I know a lot of, there’s a lot of concern. And farm fields and places where there’s a lot of plowing and turnover of the dirt that it, it, it does seem like there’s more leading edge erosion and I, I think there’s a little bit of an unknown about it, uh, just because they see leading edge [00:07:00]erosion close to these areas where there’s a lot of tilling going on.

Is it just dirt impact worth a blade or is it a combination of dirt plus rain and, and those two come combining together to make a worse case. Uh, damage scenario.

Morten Handberg: Technically it would be slightly worse than if it were, if there is some soil or, or sand, or sand contamination in the raindrops. But I mean, logically rain typically, you know, comes down from the sky.

It doesn’t, you know, it doesn’t mix in with the dirt then, you know, it would be more if you have dirt on the blades. It’s typically during a dry season where it would get mixed up and then blown onto the blades. Honestly, I don’t think that that is really what’s having an impact, because having contamination in the blade is not something that is, that would drive erosion.

I think that that is, I think that is, that is a misunderstanding. We do see sand, sand erosion in some part of the world where you have massive, uh, sand, uh, how do you say, sandstorms [00:08:00] coming through and, and that actually creates an, an abrasive wear on the plate. It looks different from rain erosion because it’s two different mechanisms.

Uh, where the sand is actually like a sandpaper just blowing across the surface, so you can see that. Whereas rain is more of this fatigue effect. So I think in the, theoretically if you had soil mixed in with rain, yes that could have an impact because you would have an a, a hardened particle. But I do, I don’t think it’s what’s driving erosion, to be honest.

Allen Hall: Okay, so then there’s really two different kinds of failure modes. A particle erosion, which is more of an abrasive erosion, which I would assume be a maybe a little wider, spread along the leading edge of the blade versus a fatigue impact from a raindrop collision. They just look different, right?

Morten Handberg: Yeah, so, so sand erosion you could have spreading across a larger surface of the blade because it, because it doesn’t bounce off in the same way that a raindrop would, you know, because that’s more of an impact angle and the load that it’s applying.

So if it comes in at a, at a st [00:09:00] at a, um, at the, at the, at a, at a steep angle, then it would just bounce off because the amount of load that it’s impacting on would be very limited. So that’s also why we don’t really see it on the, um, uh, outside of the leading edge. Whereas sand erosion would have a, would, would have a different effect because even at a steep angle, it would still, you know, create some kind of wear because of the hardened particle and the effect of that.

Allen Hall: Okay. So let’s talk about incubation period, because I’ve seen a lot of literature. Talking about incubation period and, and what that means. What does incubation period mean on a leading edge coating?

Morten Handberg: So that is, that, that is from when you start having the first impacts until you get the, the, the change in structure.

So when you get to the mass loss or first pitting, that would be your incubation period, because that is from when it starts until you can see the actual effects. Would say that, that that is what would be defined as the incubation period of leading into erosion.

Allen Hall: Okay. So you wanna then maximize the incubation period where the coating still looks mostly pristine [00:10:00] once incubation period is over and you get into the coating.

Are there different rates at which the coatings will deteriorate, or are they all pretty much deteriorating at roughly the same rate?

Morten Handberg: I mean, for the really high durability. We don’t really have good enough data to say anything about whether the, um, the, the period after the incubation period, whether that would actually, how that would work in the field.

We don’t really know that yet. I would say, because the, um, some of the, the shell solutions, some of the high end polyurethane coatings, if they fail, typically it’s because of workmanship. Or adhesion issues. It’s has so far not really been tied in directly in, into leading edge erosion. Uh, the ones that I’ve seen, so typically, and, and, you know, all of these high-end coatings, they’re just, they, they have shown, you know, some of them you couldn’t even wear down in a rain erosion tester.

Um, so, so we don’t really know. Um, how, [00:11:00] how the, how the shells, they would, they, they, they, they, how they would react over the five, 10 year period because we haven’t seen that much yet. And what we have seen have been more of a mechanical failure in, in the bonding

Allen Hall: that, I guess that makes sense. Then operators are still buying wind turbine blades without any leading edge coating at all.

It is basically a painted piece of fiberglass structure. Is that still advisable today or are there places where you could just get away with that? Or is that just not reality because of the tip speeds?

Morten Handberg: For the larger, I would say anything beyond two megawatt turbines, you should have leading edge protection because you’re at tip speeds where, you know, any kind of rain would create erosion within, um, within the lifetime of the late.

That is just a fact. Um, so. I don’t, I don’t see any real areas of the world where that would not apply. And if it, if you are in a place where it’s really dry, then it would typically also mean that then you would have sand erosion. Is that, that, [00:12:00] that would, I would expect that it would be one of the two.

You wouldn’t be in an area where it couldn’t get any kind of erosion to the blades. Um, so either you should have either a very tough gel code, um, coating, or you should have have an LEP per urethane based coating. On the blades,

Allen Hall: well do the manufacturers provide data on the leading edge offerings, on the coatings, or even the harder plastic shells or shields.

Does, is there any information? If I’m an operator and I’m buying a a three megawatt turbine that comes along with the blade that says, this is the li, this is the estimated lifetime, is that a thing right now? Or is it just We’re putting on a coating and we are hoping for the best?

Morten Handberg: The OEMs, as far as I, I haven’t seen any.

Any contract or agreement where today, where erosion is not considered a wear and tear issue, there is simply no, no coverage for it. So if you buy a turbine and there’s any kind of leading [00:13:00] edge erosion outside of the end of warranty period, it’s your your problem. There is no guarantee on that.

Allen Hall: So the operator is at risk,

Morten Handberg: well, they’re at risk and if they don’t take matters into their own hands and make decisions on their own.

But they would still be locked in because within the warranty period, they will still be tied to the OEM and the decisions that they make. And if they have a service agreement with the OEM, then they would also be tied in with what the OEM provides.

Allen Hall: So that does place a lot of the burden on the owner operator to understand the effects of rate erosion, particularly at the at a new site if they don’t have any history on it at all.

To then try to identify a, a coating or some sort of protecting device to prevent leading edge erosion. ’cause at the end of the day, it does sound like the operator owner is gonna be responsible for fixing it and keeping the blades, uh, in some aerodynamic shape. That that’s, that’s a big hurdle for a lot of operators.

Morten Handberg: The problem is that if you have a service [00:14:00]contract, but you are depending on the OEM, providing that service. Then you have to be really certain that any leading edge erosion or anywhere on the leading edge is then covered by that contract. Otherwise, you’re in, you’re in a really bad, you’re in a really risky situation because you can’t do anything on your own.

Because if you’re a service contract, but you’re beholden to whatever the, your service provider is, is, is agreeing to providing to you. So you might not get the best service.

Allen Hall: And what are the risks of this? Uh, obviously there can be some structural issues. Particularly around the tips of the blaze, but that’s also power loss.

What are typical power loss numbers?

Morten Handberg: Well, there is a theoretically theoretical power loss to it, but for any modern turbine, the blade, the, the turbine would simply regulate itself out of any leading erosion loss. So, so the blades would just change their behavior that the turbine would just change, its its operation [00:15:00]conditions so that it would achieve the same lift to the blade.

So. Uh, any study that we have done or been a part of, uh, even, you know, comparing blades that were repaired, blades that were cleaned, blades that were, uh, left eroded, and then operating the, uh, the deviation was within half, half percent and that was within the margin of error. We couldn’t read, we couldn’t see it even for really, you know, really er road blades.

Of course there is different between turbines. Some turbines, they, they could show it, but I haven’t seen any data that suggests that erosion actually leads to a lot of power loss. There is a theoretical loss because there is a loss in aerodynamic performance, but because blades today they’re pitch controlled, then you can, you can regulate yourself out of that.

Some of that, uh, power laws,

Allen Hall: so the control laws in the turbine. Would know what the wind speeds are and what their power output should be, and it’ll adjust the [00:16:00]pitch of each of the blades sort of independently to, to drive the power output.

Morten Handberg: Typically, erosion is a uniform issue, so what happens on one blade happens on three.

So it’s rare to see that one blade is just completely erod in the two other they look fine. That’s really rare unless you start, you know, doing uh, abnormal repairs on them. Then you might get something. But even then, I mean, we’re not talking, you know, 10 per 10 degrees in, in variation. You know, it’s not, it’s not anything like that.

It’s very small changes. And if they would do a lot of weird DA, you know, uh, different angles, you would get instant imbalance and then, you know, you would get scatter alarm. So, so you would see that quite fast.

Allen Hall: Well, let me, let me just understand this just a little bit. So what the control logs would do would increase the pitch angle of the blaze, be a little more aggressive.

On power production to bring the power production up. If leading edge erosion was knocking it down a percentage point or two, does that have a consequence? Are like when you [00:17:00] start pitching the blades at slightly different angles, does that increase the area where rain erosion will occur? Is like, are you just.

Keep chasing this dragon by doing that,

Morten Handberg: you could change the area a little bit, but it’s not, it’s not something that, that changes the erosion, uh, that the erosion zone, that that much. It’s very minimal. Um, and one, one of the, another, another reason why, why you might see it might, might not see it as much is because voltage generator panels is widely used in the industry today.

And, and Vortex panel, they are. Uh, negating some of the negative effect from, uh, leading erosion. So that also adds to the effect that there, that the aerodynamic effect of leading erosion is limited, uh, compared to what we’ve seen in the past.

Allen Hall: Okay. So there’s a couple manufacturers that do use vortex generators around the tip, around the leading edge erosion areas right outta the factory, and then there’s other OEMs that don’t do that at all.

Is, is there a benefit to [00:18:00] having the VGs. Right out of the factory. Is that, is that just to, uh, as you think about the power output of the generator over time, like, this is gonna gimme a longer time before I have to do anything. Is, is in terms of repair,

Morten Handberg: it does help you if you have contamination of the blade.

It does help you if you have surface defects off the blade. That, that any, uh, any change to the air, to the aerodynamics is, is reduced and that’s really important if you have an optimized blade. Then the negative effect of leading erosion might get, uh, you know, might, might, might get, might get affected.

But there are, there are still reasons why I do want to do leading erosion repairs. You should do that anyway, even if you can’t see it on your power curve or not, because if you wait too long, you’ll start to get structural damages to the blade. As we talked about last time. It’s not that leading edge erosion will turn into a critical damage right away, but if you need, if you go into structural erosion, then the, then the cost of damage.

The cost of repairing the damage will multiply. Uh, [00:19:00] and at, at a certain point, you know, you will get a re structure. It might not make the blade, you know, uh, cost a, a condition where the blade could collapse or you’re at risk, but you do get a weakened blade that is then susceptible to damage from other sources.

Like if you have a lighting strike damage or you have a heavy storm or something like that, then that can accelerate the damage, turning it into a critical damage. So you should still keep your leading edge in, in shape. If you want to do to, to minimize your cost, you should still repair it before it becomes structural.

Allen Hall: Okay. So the blades I have seen where they actually have holes in the leading edge, that’s a big problem just because of contamination and water ingress and yeah, lightning obviously be another one. So that should be repaired immediately. Is is that the, do we treat it like a cat four or cat five when that happens?

Or how, what? How are we thinking about that?

Morten Handberg: Maximum cat, cat four, even, even in those circumstances because it is a, it is a severe issue, but it’s not critical on, on its own. So I would not treat it as a cat five where you need to stop [00:20:00] the turbine, stuff like that. Of course, you do want, you don’t want to say, okay, let’s wait on, let’s wait for a year or so before we repair it.

You know, do plan, you know, with some urgency to get it fixed, but it’s not something where you need to, you know, stubble works and then get that done. You know, the blade can survive it for, for a period of time, but you’re just. Susceptible to other risks, I would say.

Allen Hall: Alright. So in in today’s world, there’s a lot of options, uh, to select from in terms of leading edge protection.

What are some of the leading candidates? What, what are some of the things that are actually working out in the field?

Morten Handberg: What we typically do, uh, when we’re looking at leading edge erosion, we’re looking at the, the raw data from the wind farm. Seeing how, how bad is it and how long have the wind farm been operated without being repaired?

So we get a sense of the aggressiveness of the erosion and. Um, if we have reliable weather data, we can also do some modeling to see, okay, what is the, what is the, the, uh, environmental conditions? Also, just to get a sense, is this [00:21:00] material driven fatigue or is it actually rain erosion driven fatigue?

Because if the, if the coating quality was not, was not very good, if the former lead leading edge, it was not applied very, very, very good, then, you know, you still get erosion really fast. You get surface defects that, uh, that trigger erosion. So that’s very important to, to, to have a look at. But then when we’ve established that, then we look at, okay, where do we have the, the, the, uh, the structural erosion zone?

So that means in what, in what part of the BA would you be at risk of getting structural damage? That’s the part where that you want to protect at all costs. And in that, I would look at either shell solution or high duty, um, put urethane coating something that has a a long durability. But then you also need to look at, depending on whether you want to go for coating or shell, you need to look at what is your environmental condition, what is your, you know, yeah.

Your environmental conditions, because you also wanna apply it without it falling off again. Uh, and if you have issues with [00:22:00] high humidity, high temperatures, uh, then a lot of the coatings will be really difficult to process or, you know, to, to. Uh, to handle in the field. And, you know, and if you don’t, if you don’t get that right, then you just might end up with a lot of peeling coating or uh, peeling shells.

Um, so it’s very important to understand what is your environmental conditions that you’re trying to do repairs in. And that’s also why we try not to recommend, uh, these shell repairs over the entire, out a third of the blade. Because you’re, you’re just putting up a lot of risk for, for, uh, for detaching blades if you put on too high, um, uh, how do you say, high height, sea of solutions.

Allen Hall: Yeah. So I, I guess it does matter how much of the blade you’re gonna cover. Is there a general rule of thumb? Like are we covering the outer 10%, outer 20%? What is the. What is that rule of thumb?

Morten Handberg: Typically, you know, you, you get a long way by somewhere between the outer four to six meters. Um, so that would [00:23:00]probably equivalate to the, out of the outer third.

That would likely be something between the outer 10 to 15 to 20% at max. Um, but, but it is, I, I mean, instead of looking at a percentage, I usually look at, okay, what can we see from the data? What does that tell us? And we can see that from the progression of the erosion. Because you can clearly see if you have turbines that’s been operating, what part of the blade has already, you know, exposed laminate.

And where do you only have a light abrasion where you only have a light abrasion, you can just continue with, and with the, with, with the general coating, you don’t need to go for any high tier solutions. And that’s also just to avoid applying, applying something that is difficult to process because it will just end up, that it falls off and then you’re worse off than, than before actually.

Allen Hall: Right. It’s about mitigating risk at some level. On a repair,

Morten Handberg: reducing repair cost. Um, so, so if you, if you look at your, your conditions of your blades and then select a solution that is, that is right for that part of [00:24:00] the blade

Allen Hall: is the best way to repair a blade up tower or down tower is what is the easiest, I guess what’s easier, I know I’ve heard conflicting reports about it.

A lot of people today, operators today are saying we can do it up tower. It’s, it’s pretty good that way. Then I hear other operators say, no, no, no, no, no. The quality is much better if the blade is down on the ground. What’s the recommendation there?

Morten Handberg: In general, it can be done up tower. Um, it is correct if you do a down tower, the quality is better, but that, that, that means you need to have a crane on standby to swap out blades.

Uh, and you should have a spare set of blades that you can swap with. Maybe that can work. Um. But I would say in general, the, your, your, your, your cheaper solution and your more, you know, you know, uh, would be to do up tower. And if, and again, if you do your, your, your homework right and, and selecting the right, uh, products for, for your [00:25:00] local environments, then you can do up tower then leading it, erosion.

Not something that you need to, you should not need to consider during a down tower. Unless you are offshore in an environment where you only have, uh, 10 repair days per year, then you might want to look at something else. But again, if we talk for offs for onshore, I would, I would always go for up, up tower.

I, I don’t, I don’t really see the need for, for, for taking the blades down.

Allen Hall: So what is the optimum point in a blaze life where a leading edge coating should be applied? Like, do you let it get to the point where you’re doing structural repairs or. When you start to see that first little bit of chipping, do you start taking care of it then there I, there’s gotta be a sweet spot somewhere in the middle there.

Where is that?

Morten Handberg: There is sweet spot. So the sweet spot is as soon as you have exposed laminate, because from exposed laminate, uh, the repair cost is exactly the same as if it was just, you know, uh, a light abrasion of the coating because the, the, the time to, to, um, prepare the [00:26:00] surface to apply the coating is exactly the same.

From, you know, from, from, from light surface damage to exposed laminate. That is the same, that is the same repair cost. But as soon as you have a structural damage to your blade, then you have to do a structural repair first, and then you’re, you’re multiplying the repair time and your repair cost. So that is the right point in time.

The way to, to determine when that is, is to do inspections, annual inspections, if you do 10% of your wind farm per year. Then you would know why, what, how the rest of your wind farm looks like because erosion is very uniform across the wind farm. Maybe there are some small deviations, but if you do a subset, uh, then, then you would have a good basic understanding about what erosion is.

You don’t need to do a full sweep of the, of the wind farm to know, okay, now is my right time to do repairs.

Allen Hall: Okay, so you’re gonna have a, a couple years notice then if you’re doing drone inspections. Hopefully you put, as you put your blades up, doing a drone inspection maybe on the ground so you [00:27:00] have a idea of what you have, and then year one, year two, year three, you’re tracking that progression across at least a sampling of the wind farm.

And then, then you can almost project out then like year five, I need to be doing something and I need to be putting it into my budget.

Morten Handberg: When you start to see the first minor areas of exposed laminate. Then the year after, typically then you would have a larger swat of, of laminated exposure, still not as structural.

So when you start to see that, then I would say, okay, next year for next year’s budget, we should really do repairs. It’s difficult when you just direct the wind farm, maybe have the first year of inspection. It’s difficult to get any, any kind of, you know, real sense of what is the, you know, what is the where of scale that we have.

You can be off by a factor of two or three if, you know, if, um, so I would, I would give it a few years and then, uh, then, then, then see how things progresses before starting to make, uh, plans for repairs. If you [00:28:00] don’t have any leading edge erosion protection installed from the start. I would say plan, at least for year, year five, you should expect that you need to go out, do and do a repair.

Again, I don’t have a crystal ball for every, you know, that’s good enough to predict for every wind farm in the world, but that would be a good starting point. Maybe it’s year three, maybe it’s year seven, depending on your local conditions. That is, but then at least you know that you need to do something.

Allen Hall: Well, there’s been a number of robotic, uh, applications of rain erosion coatings. Over the last two, three years. So now you see several different, uh, repair companies offering that. What does the robotic approach have to its advantage versus technicians on ropes?

Morten Handberg: Obviously robots, they don’t, they don’t, uh, get affected by how good the morning coffee was, what the latest conversation with the wife was, or how many hours of sleep it got.

There is something to, with the grown operator, uh, you know how good they are. But it’s more about how well, uh, [00:29:00] adjusted the, the controls of the, of the, the robot or the drone is in its application. So in principle, the drone should be a lot better, uh, because you can, it will do it the right, the same way every single time.

What it should at least. So in, so in principle, if you, you, you, when we get there, then the leading it then, then the robot should be, should outmatch any repair technician in, in the world. Because repair technician, they’re really good. They’re exceptionally good at what they do. The, the, the far majority of them, but they’re, they’re still people.

So they, you know, anyone, you know, maybe standing is not a hundred percent each time, maybe mixing of. Um, of materials and they’re much better at it than I am. So no question there. But again, that’s just real reality. So I would say that the, the, the draw, the robots, they should, uh, they should get to a point at some, at some point to that they will, they will be the preferable choice, especially for this kind of, this kind of repair.

Allen Hall: What should [00:30:00] operators be budgeting to apply a coating? Say they’re, you know, they got a new wind farm. It’s just getting started. They’re gonna be five years out before they’re gonna do something, but they, they probably need to start budgeting it now and, and have a scope on it. ’cause it’s gonna be a capital campaign probably.

How much per turbine should they be setting aside?

Morten Handberg: I would just, as a baseline, at least set aside 20,000 per per blade

Allen Hall: dollars or a Corona

Morten Handberg: dollars.

Allen Hall: Really. Okay.

Morten Handberg: Assuming that you actually need to do a repair campaign, I would say you’re probably ending up in that region again. I can be wrong with by a factor of, you know, uh, by several factors.

Uh, but, um, but I would say that as a starting point, we don’t know anything else. I would just say, okay, this should be the, the, the, the budget I would go for, maybe it’ll be only 10 because we have a lesser campaign. Maybe it will be twice because we have severe damages. So we need just to, to, to source a, um, a high end, uh, LEP solution.

Um, so, so [00:31:00] again, that would just be my starting point, Alan. It’s not something that I can say with accuracy that will go for every single plate, but it would be a good starting point.

Allen Hall: Well, you need to have a number and you need to be, get in the budget ahead of time. And so it, it’s a lot easier to do upfront than waiting till the last minute always.

Uh, and it is the future of leading edge erosion and protection products. Is it changing? Do you see, uh, the industry? Winning this battle against erosion.

Morten Handberg: I see it winning it because we do have the technology, we do have the solutions. So I would say it’s compared to when we started looking at it in 14, where, you know, we had a lot of erosion issues, it seems a lot more manageable.

Now, of course, if you’re a, if you’re a new owner, you just bought a wind farm and you’re seeing this for this first time, it might not be as manageable. But as an, as an industry, I would say we’re quite far. In understanding erosion, what, how it develops and what kind of solutions that that can actually, uh, withstand it.

We’re still not there in [00:32:00] terms of, uh, quality in, in repairs, but that’s, um, but, but, uh, I, I think technology wise, we are, we are in a really good, good place.

Allen Hall: All the work that has been done by DTU and RD test systems for creating a rain erosion test. Facility and there’s several of those, more than a dozen spread around the world at this point.

Those are really making a huge impact on how quickly the problem is being solved. Right? Because you’re just bringing together the, the, the brain power of the industry to work on this problem.

Morten Handberg: They have the annual erosion Symposium and that has been really a driving force and also really put DTU on the map in terms of, uh, leading edge erosion, understanding that, and they’re also trying to tie, tie it in with lightning, uh, because, uh.

If you have a ro, if you have erosion, that changes your aerodynamics. That in fact changes how your LPS system works. So, so there is also some, some risks in that, uh, that is worth considering when, when, when discussing [00:33:00]repairs. But I think these of you, they’ve done a tremendous amount of work and r and d system have done a lot of good work in terms of standardizing the way that we do rain erosion testing, whether or not we can then say with a hundred uncertainty that this, uh, this test will then match with.

With, um, how say local environment conditions, that’s fine, but we can at least test a DP systems on, on the same scale and then use that to, to, to look at, well how, how good would they then ferry in in the, um, out out in the real world.

Allen Hall: Yeah, there’s a lot too leading edge erosion and there’s more to come and everybody needs to be paying attention to it.

’cause it, it is gonna be a cost during the lifetime of your wind turbines and you just need to be prepared for it. Mor how do people get ahold of you to learn more about leading edge erosion and, and some of the approaches to, to control it?

Morten Handberg: Well, you can always re reach me, uh, on my email, meh, at wind power.com or on my LinkedIn, uh, page and I would strongly advise, you know, reach out if you have any concerns regarding erosion or you need support with, um, [00:34:00] uh, with blade maintenance strategies, uh, we can definitely help you out with that.

Or any blade related topic that you might be concerned about for your old local wind farm.

Allen Hall: Yes. If you have any blade questions or leading edge erosion questions, reach out to Morton. He’s easy to get ahold of. Thank you so much for being back on the podcast. We love having you. It

Morten Handberg: was fantastic being here.

Cheers. A.

Morten Handberg Breaks Down Leading Edge Erosion

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