
Breadcrumbs
Solar exports from China increase by a third
Exports of solar panels from China increased by 34% in the first half of 2023 compared to the same period last year.
About
This report analyses Chinese customs data on exports of solar modules–also called solar panels–in the first half of 2023.
It accompanies an interactive data tool and open dataset that will be updated monthly by Ember to track the capacity of solar modules exported from China to the rest of the world.
Executive summary
Solar boom continues
The growth in solar exports from China is helping to meet growing demand for clean, affordable power, driven by markets like Europe and South Africa that are aiming to increase energy security.
Sam Hawkins Data lead, Ember
Solar growth is going through the roof. The world is racing to harness this cheap, clean and abundant source of energy to power the future economy. It is clear that global manufacturing capacity is currently not the limiting factor to achieving the required fivefold growth in solar power by 2030. We have enough solar panels, we just need to get busy installing them. Policies should focus on ensuring installation and grid integration can ramp up as fast as global module supply.
Analysis
A 34% increase in China’s solar panel exports meets growing global demand
Exports of solar panels from China grew by 34% in the first half of 2023, with the fastest growth in Europe and Africa.
In 2022, global solar PV manufacturing capacity increased by over 70% to reach almost 450 GW, according to the IEA. Global solar PV manufacturing capacity is expected to double again and reach almost 1000 GW capacity per year in 2024. Most of the growth is still in China, although 70 GW/year of capacity will come online spread across the United States, Europe, India and other countries in Asia.
China’s solar manufacturing capacity is expected to almost double in the next year, from 504 GW/year at the end of 2022 to 931 GW/year at the end of 2023. Europe is aiming for 30 GW/year of manufacturing capacity by 2025. In the United States, the Inflation Reduction Act has spurred investments of 85 GW/year of solar panel manufacturing capacity. India aims to increase manufacturing capacity to 110 GW/year by 2026.
A 1.5 degree aligned pathway requires a tripling of renewable capacity by 2030, which is already possible to achieve with 1000 GW/year of supply expected by 2024. It is clear that global manufacturing capacity is currently not the limiting factor.
However, the gap between solar module exports and installed PV capacity is widening. In part, this gap may reflect an underestimation of installed rooftop capacity, or lags in collecting accurate numbers for total installed capacity. Yet it also clearly reflects a build-up of module stocks in warehouses as a result of the challenges of accelerating solar installation and grid integration.
Conclusion
Solar is booming
Global solar manufacturing capacity is not a barrier to the fivefold increase in solar deployment needed for 1.5C pathways, and policies must now focus on removing bottlenecks to installation.
Solar demand in 2023 is booming: the latest data shows there may be 50% more installed in 2023 than there was in 2022. And there is enough global manufacturing capacity coming online to make sure that it can continue to do so.
Nowhere is this more true than in China. There were 154% more solar panels installed in the first half of 2023, compared to the same period in 2022. By comparison, China’s solar panel exports rose 34% in the same period. China’s solar manufacturing capacity is expected to almost double in the next year. This has resulted in a large reduction in the price of solar panels, which have fallen by 25% since the start of the year.
Imports of Chinese solar panels will continue to be important to the global electricity transition in the short term. Much of Europe’s demand for solar power is being met by China, but this reliance will be reduced as the region increases manufacturing capacity. The US has already cut Chinese imports to near-zero, and the Inflation Reduction Act has spurred investments in solar panel manufacturing capacity. India has relaxed its import duty to partly resume Chinese solar imports, whilst increasing manufacturing capacity to become self-sufficient.
But there are signs that deployment is not keeping pace with supply of solar panels, with an increase in imported solar panels left in warehouses, which is especially visible in Europe. This is caused by installation delays arising from skills shortages, permitting and grid integration. This is holding back the transition, and creating ‘pent-up’ demand.
In order to put the world on track for 1.5 degrees, global renewable capacity will need to triple by 2030. There will be enough supply of solar panels to make sure this happens. Government policies need to focus on how to maximise deployment, to make sure the pent-up demand for solar is unleashed.
Supporting Material
Methodology
Summary
We have taken Chinese customs data of solar module exports by country by month, and converted the value in dollars into a megawatt capacity, using a monthly solar module spot price.
Export Data
Ember’s China solar export dataset provides the following information:
- Export amount in weight (kg)
- Export amount in US dollars (USD)
- Export amount in quantity (number of items)
- Average photovoltaic module price (USD)
- Calculated capacity (MW)
Data is sourced from the General Administration of Customs of the People’s Republic of China (GACC):
- Data is available from 2017 to present.
- Prior to 2022, assembled and non-assembled cells were not disaggregated into separate commodity codes.
- Prior to 2022, the commodity code used is 85414020 (Solar cells).
- From 2022 and onwards, the commodity code used is 85414300 (Photovoltaic cells assembled in modules or made up into panels).
- From 2022 and onwards the code 85414200 (Photovoltaic cells not assembled in modules or made up into panels) is excluded from this dataset. In 2022, unassembled modules accounted for 8.7% of total photovoltaic cell exports by value.
Module Price
Average monthly PV module prices are sourced from InfoLink Consulting Group. For this dataset, only the overseas market price for assembled modules is used. All prices published for a given month are averaged, and prices are interpolated for missing months. The monthly PV module price is included in the data download.
Capacity Calculation
The capacity (MW) of the solar exports in this dataset is not reported by GACC. We calculate capacity from the export value in US dollars (from the raw GACC customs data) and the average monthly PV module prices described above.
This capacity value is indicative – in reality modules will be traded at different prices depending on the destination, the module technology etc. It is a useful metric to compare trends over time and between countries but it should not be taken as exact.
Release Schedule
GACC releases the monthly solar export data with a one month lag (except for January and February data, which are released together in March).
The GACC release is usually available on the 20th of the month, and this dataset is updated shortly afterwards.
Caveats
GACC data records the first country solar cells and modules are exported to, which may not be the final destination. This is particularly evident for exports to the Netherlands which is a major import hub for European countries. For example, in 2022, 44 GW of solar modules were exported to the Netherlands compared to an estimated 4GW of new solar capacity installed within the Netherlands. The same may be true for other countries acting as import hubs for neighbouring countries, and country data should be used with caution.
Acknowledgements
Workers produce solar photovoltaic modules for export on the production line of a new energy workshop in Haian, Jiangsu province, China.
Credit: Sipa US / Alamy Stock Photo