Part 2: Historic and Current Market Risk Assessment for Utility-Scale PV Solar Lenders and Insurers

Utility-scale PV market changes happen rapidly. These shifts have accelerated over the decades, but the past decade has been particularly transformative.

One significant change is utility-scale solar power plants growing in size. 1 MW was about average for a project in North America at that time. Now average plant sizes are around 100 MW or more, some even approaching 1 GW.  

This incline in project size and fast-tracked component and software innovation make risk assessment both more complicated and more valuable.

 

Historic stumbling blocks and current improvements 

Historically, financial stakeholders in utility-scale PV have felt largely in the dark in terms of identifying and allocating risk. A decade ago, lenders and insurers reported a lack of solid understanding about the solar market themselves and doubted in developer ability to fully address their concerns.

More independent research, testing, and communication have unblocked channels to more accurate risk assessments.

 

Lack of consistent data on solar equipment durability

Rigorous testing of solar hardware has often been lacking in the industry. This is in part because of the disparity between controlled lab results and real-world testing.

The lack of long-term test data on real-world PV viability has also made insuring these assets more challenging. This lack of information skews the perception of solar components and installation as higher risk. 

NREL released a landmark report on the challenges and solutions for insuring PV in 2010. The paper addressed an increase in financial losses in the insurance industry since 1960. Insured losses grew from almost nothing to $50 billion in 2005, and uninsured losses increased from $5 billion in 1950 to more than 70 billion in 2005.

Currently, news of continuous hurricane strikes, as well as longer and more dangerous fire seasons spreading wider across the western United States and Australia, is rampant. NOAA predicts an increase in category 4 or 5 hurricanes and more forceful winds to only increase due to climate change.

There is still insufficient information comparing the reliability of equipment from different suppliers over the 30+ year lifecycle of a modern PV solar power plant, but recent studies have shown that operations and maintenance costs can significantly effect profitability over the lifecycle of a PV solar power plant.  Given this reality, lenders and insurers typically have simple approved vendor lists with all equipment on those lists considered equal in terms of reliability.  We have seen numerous examples where unreliable, failure-prone equipment is on these vendor lists. This happens because there is not enough real-world data available on component failure rates.

Industry trade groups have, however, developed standard compliance practices. Model contracts, installation and O&M best practices, and the US Department of Energy’s Orange Button data standard can be used as benchmarks to navigate risk. Third-party testing is also more common and necessary to avoid siloed/bad data.

Since PV systems are subject to extreme weather, environmental tests are crucial. This has never been truer as climate change intensifies weather around the world. At ARRAY, we put our equipment to the test using both modeling and real-world scenarios utilizing assessment by 3rd party engineers to make sure we can back up durability claims.

 

Lack of performance data

Insuring PV sites has been a difficult task for underwriters who don’t have extensive knowledge about solar performance expectations. Since the solar industry is relatively young, data on insurance claims have also been thin.

Here again, over the past decade, industry agreement on performance and component benchmarking have created data sets for investors and insurers to evaluate risk better.

Investors are now using industry comps (traditionally used by project developers) to compare portfolio operating health and payment performance.

Component benchmarking helps identify any latent portfolio risks by reviewing sub-par equipment performance or performance trends across regions.

 

Industry-specific insurers

Having an insurance broker who knows the solar industry and business particulars can make the difference between paying inflated insurance premiums and getting more precise coverage at a good price.

There are even solar-specific packages covering the most common risk exposures or individual policies for certain issues, depending on the project.

 

Lack of standard certification

The best components installed incorrectly can be financially damaging or even dangerous. Financiers have been hesitant to back projects in some cases because of the inconsistent standards in contractors and subcontractors who build the equipment on site.

Insurers have also traditionally cited loose certification guidelines for installers as a potential weakness.

Although there are still some loose optics to certification standards, industry groups are formulating more consistency in what should be included. Working with a wellvetted EPC company with a good track record is the best way to ensure quality work.

 

Investors as risk managers

Investors must act as risk managers in order to satisfy the business and compliance requirements of senior business leaders, credit committees, internal and external auditors, and regulators. Doing so reduces the risk of technological and credit-related risk factors and increases project cash flow.

Trust, but verify the information coming in from asset managers. This is not to say that asset managers don’t have the knowledge or would purposefully mislead—simply that proactively working to resolve any oversights could diminish returns shortfalls.

Perhaps the most challenging part of current market assessment is the ability to calibrate the complexity of risk analysis with appropriate management. This adjustment is based on the size and type of each individual project.

While a more robust market means more standardization and better benchmarks, cookie-cutter approaches don’t apply well to solar projects. An individualized and fresh eye should be brought to every new opportunity.

 

Bigger projects, essential to get it right

The larger the project scale, the more incremental differences in power production over time add up to either make or break investor returns.

One of the critical attributes in mitigating the risk of reduced performance (and cash flow) is excellent design standards. Nothing can substitute for thoughtful design.

We’ll talk more about how to select and use equipment that best improves system performance in part three, Why PV Trackers Are a Critical Component of a Risk Profile for Utility-Scale PV Solar Lenders and Insurers.” 

Click here for other articles by this author

Part 2: Historic and Current Market Risk Assessment for Utility-Scale PV Solar Lenders and Insurers

Utility-scale PV market changes happen rapidly. These shifts have accelerated over the decades, but the past decade has been particularly transformative.

One significant change is utility-scale solar power plants growing in size. 1 MW was about average for a project in North America at that time. Now average plant sizes are around 100 MW or more, some even approaching 1 GW.  

This incline in project size and fast-tracked component and software innovation make risk assessment both more complicated and more valuable.

 

Historic stumbling blocks and current improvements 

Historically, financial stakeholders in utility-scale PV have felt largely in the dark in terms of identifying and allocating risk. A decade ago, lenders and insurers reported a lack of solid understanding about the solar market themselves and doubted in developer ability to fully address their concerns.

More independent research, testing, and communication have unblocked channels to more accurate risk assessments.

 

Lack of consistent data on solar equipment durability

Rigorous testing of solar hardware has often been lacking in the industry. This is in part because of the disparity between controlled lab results and real-world testing.

The lack of long-term test data on real-world PV viability has also made insuring these assets more challenging. This lack of information skews the perception of solar components and installation as higher risk. 

NREL released a landmark report on the challenges and solutions for insuring PV in 2010. The paper addressed an increase in financial losses in the insurance industry since 1960. Insured losses grew from almost nothing to $50 billion in 2005, and uninsured losses increased from $5 billion in 1950 to more than 70 billion in 2005.

Currently, news of continuous hurricane strikes, as well as longer and more dangerous fire seasons spreading wider across the western United States and Australia, is rampant. NOAA predicts an increase in category 4 or 5 hurricanes and more forceful winds to only increase due to climate change.

There is still insufficient information comparing the reliability of equipment from different suppliers over the 30+ year lifecycle of a modern PV solar power plant, but recent studies have shown that operations and maintenance costs can significantly effect profitability over the lifecycle of a PV solar power plant.  Given this reality, lenders and insurers typically have simple approved vendor lists with all equipment on those lists considered equal in terms of reliability.  We have seen numerous examples where unreliable, failure-prone equipment is on these vendor lists. This happens because there is not enough real-world data available on component failure rates.

Industry trade groups have, however, developed standard compliance practices. Model contracts, installation and O&M best practices, and the US Department of Energy’s Orange Button data standard can be used as benchmarks to navigate risk. Third-party testing is also more common and necessary to avoid siloed/bad data.

Since PV systems are subject to extreme weather, environmental tests are crucial. This has never been truer as climate change intensifies weather around the world. At ARRAY, we put our equipment to the test using both modeling and real-world scenarios utilizing assessment by 3rd party engineers to make sure we can back up durability claims.

 

Lack of performance data

Insuring PV sites has been a difficult task for underwriters who don’t have extensive knowledge about solar performance expectations. Since the solar industry is relatively young, data on insurance claims have also been thin.

Here again, over the past decade, industry agreement on performance and component benchmarking have created data sets for investors and insurers to evaluate risk better.

Investors are now using industry comps (traditionally used by project developers) to compare portfolio operating health and payment performance.

Component benchmarking helps identify any latent portfolio risks by reviewing sub-par equipment performance or performance trends across regions.

 

Industry-specific insurers

Having an insurance broker who knows the solar industry and business particulars can make the difference between paying inflated insurance premiums and getting more precise coverage at a good price.

There are even solar-specific packages covering the most common risk exposures or individual policies for certain issues, depending on the project.

 

Lack of standard certification

The best components installed incorrectly can be financially damaging or even dangerous. Financiers have been hesitant to back projects in some cases because of the inconsistent standards in contractors and subcontractors who build the equipment on site.

Insurers have also traditionally cited loose certification guidelines for installers as a potential weakness.

Although there are still some loose optics to certification standards, industry groups are formulating more consistency in what should be included. Working with a wellvetted EPC company with a good track record is the best way to ensure quality work.

 

Investors as risk managers

Investors must act as risk managers in order to satisfy the business and compliance requirements of senior business leaders, credit committees, internal and external auditors, and regulators. Doing so reduces the risk of technological and credit-related risk factors and increases project cash flow.

Trust, but verify the information coming in from asset managers. This is not to say that asset managers don’t have the knowledge or would purposefully mislead—simply that proactively working to resolve any oversights could diminish returns shortfalls.

Perhaps the most challenging part of current market assessment is the ability to calibrate the complexity of risk analysis with appropriate management. This adjustment is based on the size and type of each individual project.

While a more robust market means more standardization and better benchmarks, cookie-cutter approaches don’t apply well to solar projects. An individualized and fresh eye should be brought to every new opportunity.

 

Bigger projects, essential to get it right

The larger the project scale, the more incremental differences in power production over time add up to either make or break investor returns.

One of the critical attributes in mitigating the risk of reduced performance (and cash flow) is excellent design standards. Nothing can substitute for thoughtful design.

We’ll talk more about how to select and use equipment that best improves system performance in part three, Why PV Trackers Are a Critical Component of a Risk Profile for Utility-Scale PV Solar Lenders and Insurers.” 

Click here for other articles by this author

Parte 2: Evaluación del riesgo del mercado histórico y actual para los prestamistas y aseguradores

Los cambios en el mercado fotovoltaico se producen rápidamente. Estos cambios se han acelerado a lo largo de las décadas, pero la última década ha sido especialmente transformadora.

Uno de los cambios más significativos es el aumento del tamaño de las instalaciones de energía solar. En aquella época, 1 MW era la media de un proyecto en Norteamérica. Ahora el tamaño medio de las plantas es de 100 MW o más, algunas incluso se acercan a 1 GW.

Este aumento del tamaño de los proyectos y la rápida innovación de los componentes y el software hacen que la evaluación de riesgos sea más complicada y más valiosa.

 

Obstáculos tradicionales y mejoras actuales

Históricamente, las partes interesadas en la financiación de la energía fotovoltaica se han sentido en gran medida en la oscuridad en términos de identificación y asignación de riesgos. Hace una década, los prestamistas y las aseguradoras señalaban que no tenían un conocimiento sólido del mercado solar y dudaban de la capacidad de los promotores para responder plenamente a sus preocupaciones.

La investigación, las pruebas y la comunicación más independientes han desbloqueado los canales para realizar evaluaciones de riesgo más precisas.

 

Falta de datos consistentes sobre la durabilidad de los equipos solares

El sector no suele realizar pruebas rigurosas de los equipos solares. Esto se debe en parte a la disparidad entre los resultados controlados en laboratorio y las pruebas en el mundo real.

La falta de datos de pruebas a largo plazo sobre la viabilidad de la energía fotovoltaica en el mundo real también ha dificultado el aseguramiento de estos activos. Esta falta de información sesga la percepción de los componentes y la instalación solar como de mayor riesgo.

El NREL publicó un informe histórico sobre los retos y las soluciones para asegurar la energía fotovoltaica en 2010. El documento abordaba el aumento de las pérdidas financieras en el sector de los seguros desde 1960. Las pérdidas aseguradas pasaron de casi nada a 50.000 millones de dólares en 2005, y las no aseguradas aumentaron de 5.000 millones de dólares en 1950 a más de 70.000 millones en 2005.

En la actualidad, las noticias sobre los continuos pasos de huracanes, así como las temporadas de incendios, más largas y peligrosas, se extienden por el oeste de Estados Unidos y Australia. La NOAA predice que el aumento de los huracanes de categoría 4 ó 5 y de los vientos más fuertes no hará más que aumentar debido al cambio climático.

Todavía no se dispone de suficiente información para comparar la fiabilidad de los equipos de diferentes proveedores a lo largo de los más de 30 años de vida útil de una planta solar fotovoltaica moderna, pero estudios recientes han demostrado que los costes de operación y mantenimiento pueden afectar significativamente a la rentabilidad durante el ciclo de vida de una planta solar fotovoltaica.  Teniendo en cuenta esta realidad, los prestamistas y las aseguradoras suelen tener listas de proveedores aprobadas sencillas en las que todos los equipos de esas listas se consideran iguales en términos de fiabilidad.  Hemos visto numerosos ejemplos en los que equipos poco fiables y propensos a fallos figuran en estas listas de proveedores. Esto ocurre porque no se dispone de suficientes datos reales sobre las tasas de fallo de los componentes.

Sin embargo, los grupos comerciales del sector han desarrollado prácticas de cumplimiento estándar. Los modelos de contrato, las mejores prácticas de instalación y mantenimiento, y el estándar de datos del “Botón Naranja” del Departamento de Energía de EE.UU. pueden utilizarse como puntos de referencia para controlar el riesgo. Las pruebas de terceros también son más comunes y necesarias para evitar datos aislados o erróneos.

Dado que los sistemas fotovoltaicos están sujetos a condiciones meteorológicas extremas, las pruebas ambientales son cruciales. Esto nunca ha sido más cierto, ya que el cambio climático intensifica el tiempo en todo el mundo. En ARRAY, ponemos a prueba nuestros equipos utilizando tanto modelos como escenarios del mundo real utilizando la evaluación de ingenieros de terceros para asegurarnos de que podemos respaldar las afirmaciones de durabilidad.

 

Falta de datos sobre rendimiento

Asegurar los parques fotovoltaicos ha sido una tarea difícil para los aseguradores, que no tienen amplios conocimientos sobre las expectativas de rendimiento de la energía solar. Como el sector solar es relativamente joven, los datos sobre reclamaciones de seguros también han sido escasos.

También en este caso, durante la última década, el acuerdo del sector sobre el rendimiento y la evaluación comparativa de los componentes han creado conjuntos de datos para que los inversores y las aseguradoras puedan evaluar mejor el riesgo.

Los inversores utilizan ahora comparaciones del sector (tradicionalmente utilizadas por los promotores de proyectos) para comparar la salud operativa de la cartera y el rendimiento de los pagos.

La evaluación comparativa de los componentes ayuda a identificar cualquier riesgo latente de la cartera mediante la revisión del rendimiento de los equipos por debajo de lo normal o de las tendencias de rendimiento en las distintas regiones.

 

Aseguradoras específicas del sector

Contar con un corredor de seguros que conozca el sector solar y las particularidades del negocio puede marcar la diferencia entre pagar primas de seguro infladas y obtener una cobertura más precisa a buen precio.

Incluso hay paquetes específicos para la energía solar que cubren las exposiciones a los riesgos más comunes o pólizas individuales para determinados aspectos, en función del proyecto.

 

Ausencia de certificación estándar

Los mejores componentes instalados de forma incorrecta pueden resultar económicamente perjudiciales o incluso peligrosos. En algunos casos, los financiadores han dudado en respaldar los proyectos debido a la inconsistencia de los estándares de los contratistas y subcontratistas que construyen los equipos in situ.

Las aseguradoras también han citado tradicionalmente las vagas directrices de certificación de los instaladores como una debilidad potencial.

Aunque las normas de certificación siguen siendo poco precisas, los grupos del sector están formulando una mayor coherencia en lo que debe incluirse. Trabajar con una empresa de EPC bien examinada y con un buen historial es la mejor manera de garantizar un trabajo de calidad.

 

Los inversores como gestores del riesgo

Los inversores deben actuar como gestores de riesgos para satisfacer los requisitos empresariales y de cumplimiento de los altos cargos de la empresa, los comités de crédito, los auditores internos y externos y los reguladores. Al hacerlo, reducen el riesgo de los factores de riesgo tecnológicos y crediticios y aumentan el flujo de caja del proyecto.

Confíe, pero verifique la información que le llega de los gestores de activos. Esto no quiere decir que los gestores de activos no tengan los conocimientos necesarios o que puedan engañar a propósito, sino que trabajar de forma proactiva para resolver cualquier descuido podría reducir los déficits de rentabilidad.

Tal vez la parte más difícil de la evaluación actual del mercado sea la capacidad de calibrar la complejidad del análisis de riesgos con una gestión adecuada. Este ajuste se basa en el tamaño y el tipo de cada proyecto individual.

Aunque un mercado más sólido implica una mayor estandarización y mejores puntos de referencia, los enfoques uniformes no se aplican bien a los proyectos solares. Cada nueva oportunidad debe ser objeto de una mirada individualizada y diferente.

 

Proyectos de mayor tamaño, fundamentales para acertar

Cuanto mayor sea la escala del proyecto, más diferencias incrementales en la producción de energía a lo largo del tiempo se sumarán para hacer o deshacer los rendimientos de los inversores.

Uno de los atributos críticos para mitigar el riesgo de reducción del rendimiento (y del flujo de caja) son las excelentes normas de diseño. Nada puede sustituir a un diseño bien pensado.

Hablaremos más sobre cómo seleccionar y utilizar equipos que mejoren el rendimiento del sistema en la tercera parte, “Por qué los seguidores fotovoltaicos son un componente crítico de un perfil de riesgo para los prestamistas y aseguradoras de energía solar“.

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