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Solar Development

New York State has ambitious renewable energy goals. The NY Clean Energy Standard (CES) aims to combat climate change, mitigate harmful air pollution, and establish a diverse and reliable supply of low carbon energy. The Climate Leadership and Community Protection Act (Climate Act) has enshrined the expansion of CES, setting a target for 70% of New York’s electricity to be generated from renewable sources like solar and wind by 2030.

In order to prepare for solar development, it is important for both municipalities and landowners to understand land use policies, solar development processes, and the long-term effects of these projects. Lewis County is home to many renewable energy projects and wants to ensure that solar resources are readily available and that these projects align with the vision of our communities. The following information and materials have been compiled to best serve our municipalities, landowners, and solar developers. 

Solar Basics

Solar energy systems convert sunlight into electrical current, which can be used to power electric loads, supplied back to the electric grid, or stored in batteries. While all solar electric systems have the same fundamental components, they can vary significantly in size and complexity. It is important not to confuse solar electric systems with solar thermal systems, which are a distinct technology designed to harness the sun’s thermal energy for heating water and air.

When sunlight hits a solar electric array, it causes the electrons within the array to move, generating direct current (DC). This electrical current travels through conductors from the array to an inverter. The inverter converts the DC into alternating current (AC), which is the type of current used to power most common electrical devices. The AC current then flows through conductors to the electric service panel of the location, and subsequently to individual branch circuits and devices. If the solar PV system is connected to the electric grid and produces more electricity than what is consumed on-site, the surplus current is sent back to the utility grid. This basic explanation of a solar electric system generally applies to the majority of installations.

Prime Solar Development Areas

Parcel Size: Solar projects require adequate land and insufficient space halts plans. Developers usually need about 10 acres for a viable project and the rule of thumb is that 5 acres of land can yield a 1 MW solar PV project. 

Land Characteristics: Similar to agricultural farms, terrain quality shapes solar project success. Developers seek flat, clear land with minimal incline and minimal wetlands. Steeper than 5-degree incline hampers trackers. Sun exposure, stability, and obstruction-free sites matter.

Infrastructure: Land size, quality, and location are crucial for solar farm viability. It is typical to see solar development within 1,000 ft of three-phase power and 2 miles from a substation, as distant sites increase interconnection costs. Accessible roads minimize transport expenses and nearby towns offer operational support. Substation proximity affects interconnection upgrade costs, including metering, reclosures, and fuses so most developments will be planned close to substations.

Land Use Laws: Solar farm viability is tied to local laws. Unfavorable regulations hinder projects, necessitating clear construction and interconnection pathways. Obstacles like permits and land constraints jeopardize feasibility, especially in less renewable-focused regions. Some developers look to collaborate with governments to revise zoning, allowing solar development while addressing community concerns like screening and conservation.

Flood Risks: Solar farm construction mandates flood risk assessment to prevent future flooding threats. High flood-risk areas deter projects, but floodplain locations don’t always halt progress. In New York, flood stage data aids planning for flood-prone parcels, requiring robust, elevated solar equipment; however, this may escalate project expenses.

Agrivoltaics

Agrivoltaics, also known as agrisolar or dual-use solar, combines agriculture and solar energy generation on the same land. Solar grazing involves livestock grazing near panels. This approach sees agriculture and solar as synergistic, not competing. Agrivoltaics sustains farmland, aiding income diversification, energy resilience, and lower carbon emissions.

Solar in Lewis County

Lewis County is a prime location for solar development and while sustainable energy is supported, we want to ensure that developers and our municipal leaders have the tools they need to properly plan for these projects. This interactive map was created to provide easily accessible information to support efficient and effective solar development planning in our communities.

To review solar laws that have been passed by Lewis County municipalities click the lightbulb icon in the top right of the map below.

Leasing to a Solar Developer

When contemplating a solar lease agreement, readiness is key. Numerous elements warrant assessment before leasing land for solar projects. For a comprehensive grasp of their implications, seek counsel from an attorney and engage your local assessor prior to finalizing any agreements. Our office is also happy to connect you with the appropriate parties. 

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Due Diligence

Solar development leases are long-term, most lasting more than 30 years. It is important to take your time to fully understand what the development will involve. Does your municipality have a law regulating solar development to address siting, permitting, and installation? Do you qualify for a School District, County, Town, or Village Tax Exemption? What are implications for removing this from an existing agricultural use? It is important to take time to review the project as a whole before signing an option agreement (development phase).

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Property Restoration

Ensure the agreement specifies responsibility for solar array decommissioning. This guarantees proper removal and land restoration if the lease ends, the company dissolves, the project is sold, or the array becomes nonviable. Restoring the land to a cultivable state comes with significant costs. Farmers must demand developer assurance, such as a financial guarantee, to cover removal expenses should the solar company face bankruptcy or dissolution. This precaution is essential.

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Agriculture Assessments

Switching from agricultural to non-agricultural use after receiving an agricultural assessment might entail a “conversion payment.” Prior to lease or contract signing, verify if solar panel installation prompts this payment. The landowner listed is liable. Collaborate with your assessor to estimate the potential conversion payment. Landowners must inform the assessor within 90 days if they change a parcel that had been granted an agricultural assessment to a non-agricultural purpose. Failure to report this conversion could result in a fine of up to $1,000 for the landowner.

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Lease Agreements

Solar energy agreements often start with an option contract between developers and landowners. This grants developers exclusive rights to assess project feasibility. If chosen, a full contract for development, construction, and operation follows. Developers assess solar capacity, conduct environmental studies, and determine construction feasibility during this period. Option durations vary, typically from one to ten years, and remain exclusive, preventing other solar development agreements. 
Upon positive investigations, the developer activates the option, proceeding with the full solar project agreement. Often, this involves easements or property leases for project support.

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Negotiation Elements

Negotiations for a solar development lease commonly involve terms related to lease duration, rental payments, payment timing, land use restrictions, site restoration, insurance, tax implications, access rights, decommissioning, and dispute resolution. Be sure to make sure the solar developer will be paying the taxes and that there are periodic rate increases. 

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Getting Paid

Certain developers may delay payment until power activation. If your land is accessible for farming during due diligence, this might not pose a problem. However, as projects shift from development to operation, land may be occupied for 6-12 months, disrupting farming. It’s advisable to negotiate payment during this transition.

The potential earnings from your land vary widely due to factors like location, acreage, proximity to a substation, and your willingness. A key clarification: will payment cover all leased acres or only those with panels? For instance, panels might occupy just 60%, affecting lease profitability if the rest serves as buffer or easements. Additionally, define maintenance expectations—usually, companies care for fenced panel zones, while land outside may be your responsibility but constrained by use restrictions.

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Tax Implications

Leasing farmland for solar development can trigger tax implications. Income from leases may affect property tax assessments and potentially change the land’s agricultural classification. Consult local tax experts to understand how these changes might impact your tax liability and farm’s overall financial situation. Additionally, once permanently affixed to land or a structure, a solar energy system becomes “real property” under Real Property Tax Law (RPTL) § 102(12)(b) and (f). While it’s taxable, exemptions per RPTL § 300 may apply. The assessor evaluates the solar array’s contributory value to your property’s total value.

On the Horizon : Battery Storage Facilities

With the inevitable additions of solar energy facilities across the New York State, there is a need to store the renewable energy produced. In 2022, Governor Kathy Hochul increased New York’s energy storage goal to 6 gigawatts by 2030, providing the delivery of clean energy for 20% of New York’s peak electricity demand, supporting the 70% renewable electricity target. While battery storage facilities are commonly integrated into larger solar developments, they are now being sited as stand alone projects that are typically 5-7 acres in size and will likely be planned on property adjacent to or in close proximity to the North Country transmission line.  It is important that local municipalities prepare for these anticipated projects and mitigate concerns through their land use laws. 

Battery Storage Facility

Municipal Considerations: Local officials and policymakers should establish distinct definitions, standards, and regulations for energy storage facilities. These differ from conventional power generation setups so adaptable zoning, environmental assessment, and noise level considerations are vital for seamless integration across diverse settings and applications.

Safety should be the top priority with any policy relative to battery storage facilities. While most energy storage developers aim to collaborate with government partners and first responders for effective regulations, guidelines, and emergency plans, upholding safety and adherence to pertinent codes and standards. Specific considerations should include:

  • Setbacks: While battery storage facilities do not need to be located in close proximately to the nearest right-of-way, municipalities should consider the impacts their distance from a roadway would have in the event of an emergency. 
  • Screening: Land use laws should ensure that these facilities are screened from adjacent properties through a combination of architectural features that are reflective of the community character of the area, earth berms, native trees and landscaping. Furthermore, the facility should be properly secured by fence. 
  • Water & Air Quality: While these energy storage facilities do not discharge wastewater and do not produce emissions or air-pollutants, in the events of fires, what are the repercussions? 
  • Emergency Services: Energy storage operators should create tailored emergency plans for each facility based on national and NYS best practices. These plans should encompass various scenarios, emphasizing collaboration with first responders. This partnership would include sharing vital information, consulting on project design, and ongoing on-site training, fostering a strong safety-focused relationship.
  • Noise: Sound levels among battery energy storage systems differ due to factors like facility size, enclosure type, and technology used. Projects should be designed for minimal noise impact, incorporating strategies for various settings. Sounds arise from usual equipment, such as HVAC systems, inverters, and transformers, similar to existing grid infrastructure. Common industrial sources include fans, pumps, and power-switching devices. The equipment-related noise should remain below a 60 dBA average over one hour, measured at the external wall of an adjacent unrelated building currently in use.
  • Utility Connections: Local officials should consider requiring, wherever possible, that the utility lines at the site be installed underground; however, this should not pertain to the primary service connection at the utility’s right-of-way or to newly installed interconnection equipment.