" The National Energy Administration's new integrated policy released on November 12th is less of an industry standard and more of a 'compass' for the development of photovoltaics . This short document of a few thousand words not only changed the logic of project development but also directly reshaped the industry landscape — for those in the photovoltaic industry, understanding its impact is crucial to seizing the opportunities of the next three years. "

As a veteran with a decade of experience in the photovoltaic industry, after repeated study, I've discovered that the core of the new policy—its " integration " —is disrupting the industry from three dimensions , while simultaneously creating four clear prospects. Today, I'll use a firsthand perspective to analyze the real impact of the new policy on the industry and predict its future implementation path — whether you're a developer, equipment manufacturer, or industry practitioner, you can find your place here.

I. The new policy directly addresses industry pain points:

The past decade of " wild growth " in the photovoltaic industry has left behind two major problems:

First, behind the 1.7 billion kilowatts of installed capacity lies the " consumption dilemma " of utilization rate dropping to 94% .

Secondly, under the stand-alone approach, the power grid faces the challenge of accepting renewable energy sources that are " volatile and unstable . " The core of the new policy's " integration " is precisely to address these two major pain points, bringing three disruptive impacts.

1.  Changes in development logic:

This is the most direct impact: previously, acquiring land and installing components was enough to make money, but now a " system solution " is required . The new policy explicitly requires that megawatt-level wind and solar power bases must be equipped with peak-shaving facilities (solar thermal, energy storage, or hydrogen energy), and the output power fluctuation must be controlled within 5 % —this means that the approval channel for pure photovoltaic projects is basically closed, and future development must understand the synergistic design of " photovoltaics + wind power + energy storage " .

For the industry, this directly filters out a number of " small workshop-style " developers. A certain county-level development company used to be able to secure three 100,000- kilowatt pure photovoltaic projects a year, but after the new policy, due to its lack of understanding of energy storage collaborative design, it has not launched a single project so far this year . In the future, developers who can survive must have system integration capabilities.

2.  Upgraded disposal model:

" Local consumption " and " industrial coupling " have completely changed the profit logic of photovoltaics . Previously, photovoltaic revenue relied entirely on the grid-connected electricity price. Now, through methods such as " direct green electricity supply " and " hydrogen production conversion , " the source of revenue has changed from " simply selling electricity " to a combination of " selling electricity + services + carbon revenue . " For example, in western China, photovoltaic power plants sell green electricity to chemical companies at a price 0.05 yuan / kWh higher than the grid-connected electricity price , and can also obtain carbon quota trading revenue.

A 1GW photovoltaic project previously generated an annual revenue of 210 million yuan from grid connection alone. Now, with direct supply from a supporting chemical industrial park, 70% of the electricity is supplied directly at 0.38 yuan / kWh (grid price 0.33 yuan / kWh), and 30% is fed into the grid. In addition, carbon revenue is added, resulting in an annual revenue of 260 million yuan, an increase of 23.8%—this is the revenue upgrade brought about by active coupling.

3.  Industrial chain restructuring:

Integration has transformed photovoltaics from an " energy industry " into an " industrial ecosystem , " completely blurring the boundaries of the industrial chain. Previously, there was a linear division of labor: " module manufacturers → EPC → power plant owners ." Now, chemical companies, computing power service providers, and automakers have all become " cross-industry players "—chemical companies build photovoltaic systems to produce hydrogen, computing power centers integrate photovoltaics to reduce costs, and automakers build photovoltaic systems to supply electricity to their factories, forming an " energy - industry " closed loop.

This directly intensifies competition within the industry: a state-owned new energy company lost a bid for a " photovoltaic + chemical " project to a chemical company that could seamlessly integrate photovoltaic hydrogen production with its own production line, achieving a combined cost 15% lower than pure energy companies . In the future, competition in the photovoltaic industry will no longer be between peers, but between cross-industry ecosystems .

II. Challenges do not change the trend:

While obstacles such as fragmented approval processes and high technical costs certainly exist, the new policy's direction is clear — integration is the inevitable path. Combining policy direction with the pace of technological iteration, the photovoltaic industry has four clear prospects for the next five years, each representing a market worth tens of billions of yuan.

1.  Project type:

The new policy encourages the construction of photovoltaic (PV) systems in inefficient spaces such as mining subsidence areas, coastal mudflats, and rooftops. These " space - intensive " projects will become the main focus of development . On the one hand, the policy provides a green channel (for example, PV in mining areas does not require additional construction land quotas), and on the other hand, land costs are low, resulting in a 5%-8% higher rate of return on projects compared to conventional ground-mounted PV .

A photovoltaic project in a coal mine subsidence area has a land rent of only 3,000 yuan per mu (compared to 10,000 yuan per mu for conventional ground-mounted photovoltaics), reducing total investment by 12% and shortening the static payback period from 6.2 years to 5.5 years. It is estimated that there are 200 million mu of usable land in mining subsidence areas alone nationwide, capable of installing 1 billion kilowatts of photovoltaic power – a trillion-yuan market.

2.  Industrial Coupling:

The relocation of energy -intensive industries to the west and the construction of zero-carbon industrial parks will give rise to a number of "photovoltaic + industry" clusters . The new policy explicitly supports the construction of green power parks in areas rich in new energy sources. After steel, electrolytic aluminum, chemical and other enterprises move there, photovoltaics will become a " standard energy source " , forming a regional closed loop of " power generation - power consumption - emission reduction " .

The Ningdong Energy and Chemical Base in Ningxia is a typical example: it has already built 5GW of photovoltaic power and 2GW of wind power, along with supporting electrolytic aluminum and coal chemical enterprises. Green electricity accounts for 40% , reducing the electricity costs for enterprises by 25% , and achieving 100% photovoltaic grid integration . In the future, such " green electricity industry clusters " will emerge in batches in Northwest China, Inner Mongolia, and other new energy-rich areas, driving photovoltaic demand worth hundreds of billions of yuan.

3.  Technological iteration:

The pain points of integration are precisely the direction for technological innovation. Under the new policy, three major technologies— " coordinated scheduling, long-term energy storage, and efficient conversion " —have become essential , and whoever can break through them will gain the upper hand: Coordinated scheduling requires an intelligent platform to achieve precise coordination of " wind, solar, energy storage , and hydrogen " ; long-term energy storage needs to solve the cost problem (aiming to reduce costs by 30% compared to current levels ); and efficient conversion needs to improve the efficiency of hydrogen production through water electrolysis (aiming to increase it from the current 70% to 85% ).

A technology company's multi-energy collaborative dispatch platform has been implemented at a wind, solar, and energy storage base in western China, reducing energy storage response time from 10 minutes to 1 minute, decreasing grid performance penalties by 80% , and generating annual service fees of 20 million yuan. The market size for such technology service providers is expected to exceed 50 billion yuan in the next three years .

III. Challenges in the Future:

Even with a clear future, the four major hurdles of approval, scheduling, technology, and land cannot be avoided . However, different players have different ways to break through these barriers — large enterprises rely on resources to overcome these challenges, while small and medium-sized enterprises fill gaps in their niche markets. Only by finding the right positioning can one profit from the trend.

IV. In conclusion:

The new policy has clearly defined the role of photovoltaics: it is no longer simply a " power generation tool , " but rather a " core node of the energy system " and a " key support for industrial carbon reduction . " For the industry, this means that while the growth rate of scale may slow down, quality and efficiency will improve significantly — in the next five years, the growth rate of photovoltaic installations may decrease from 15% to 10% , but the industry's output value will double, because each project comes with system integration and service value.

For industry professionals, the key is to transform from a " PV expert " to a " system expert " —understanding energy storage, the industry, and collaboration—in order to keep up with the trends. Does your company focus on tackling the technical challenges or providing complementary services in the integration process? Share your thoughts in the comments section.