From 6.94 MW to 41.70 MW in a single year, followed by a further increase that exceeded the previous year’s total in just seven months. Ember’s data show expanding recorded solar trade flows to Syria and a changing product mix, while the structure of the dataset places clear limits on conclusions about prices and market size.
Finished solar modules became the main driver of recorded solar imports into Syria from China. In 2025, their estimated capacity reached 41.70 MW, compared with 6.94 MW in 2024—approximately six times the previous year’s level. The expansion continued into the available period of 2026, with modules reaching 45.76 MW by the end of July, exceeding the full-year 2025 total by approximately 9.7%. This compares a partial year with a completed year; it is not a year-on-year growth rate for equivalent periods.
The composition of imports is essential to interpreting these figures. The workbook covers modules, cells and wafers, while its monthly series combines the equivalent capacities of all three products. Consequently, the 62.12 MW recorded for January–July 2026 includes 16.36 MW equivalent of cells and wafers alongside finished modules. Failing to separate these categories overstates module imports and changes the interpretation of the market.
This article examines the trade flows recorded in the Syria-specific Ember workbook. The file does not cover Syria’s imports from every country, identify importers or manufacturers, or report domestic sales and commissioned capacity. All market conclusions below are restricted to that scope.
Aggregate growth can conceal a decline in modules
Between 2022 and 2024, recorded module capacity fell from 9.15 MW to 6.94 MW, a decline of 24.2%. Over the same period, the combined total for all products rose from 12.72 MW equivalent to 16.61 MW equivalent, an increase of 30.6%. Growth in the cells category explains the divergence: its recorded capacity increased from 3.57 MW equivalent to 9.67 MW equivalent, accounting for 58.2% of the product basket in 2024.
Describing 2024 as a year of import growth is therefore accurate at the level of combined equivalent capacity, but it does not describe the movement in finished modules. The increase in cells raises questions about demand for assembly inputs. Trade records alone, however, do not establish whether production lines were operating or how much they produced. Testing that interpretation requires information on factories, end customers and inventories.
Modules explain the expansion in 2025
The pattern changed markedly in 2025. The module category added 34.76 MW compared with the previous year, while the combined total for cells and wafers declined by 1.76 MW equivalent. The net increase across the basket was 33.00 MW equivalent, bringing the total to 49.61 MW equivalent, up 198.7%. In other words, the increase in modules exceeded the entire net expansion of the basket and offset the combined decline in other components.
Modules’ share of the basket’s equivalent capacity rose from 41.8% in 2024 to 84.1% in 2025. It subsequently stood at 73.7% in January–July 2026, when cells accounted for 11.00 MW equivalent and wafers for 5.36 MW equivalent. These figures describe the product mix within the workbook; they are not company or country market shares in Syria.
Commercially, the shift towards finished modules makes the distribution and installation of final products central to understanding the recorded expansion in 2025. It does not establish whether buyers were supplying residential, agricultural, commercial or utility-scale systems, as the dataset contains no such segmentation. Nor does the lower module share in 2026 indicate a decline in absolute module capacity, which had already exceeded the 2025 total.
Growth accelerated in 2026, with flows concentrated in specific months
Comparing equivalent periods, the combined capacity of the three products increased from 22.39 MW equivalent in January–July 2025 to 62.12 MW equivalent in the same period of 2026, a rise of 177.4%. This is the most appropriate comparison for assessing recent momentum. An equivalent calculation for import value or modules alone is not possible because the workbook does not provide their monthly breakdowns.
Flows were unevenly distributed. April and July 2026 recorded 18.36 MW equivalent and 16.73 MW equivalent, respectively, together accounting for 56.5% of the seven-month total. In 2025, the three largest months—September, April and December—represented 63.4% of the annual total. This establishes monthly concentration, but it does not reveal the number of shipments or contracts behind it.
Such variation limits the usefulness of a monthly average as the sole basis for procurement or cash planning. Concentration could reflect shipping schedules, project deliveries or inventory accumulation, but the workbook cannot distinguish between these explanations. The seven-month rate should therefore not be extrapolated mechanically to the end of 2026, nor should it be treated as evidence of a stable seasonal pattern.
A larger import bill does not, by itself, reveal module price trends
Recorded annual value increased from $1.32 million in 2024 to $4.28 million in 2025, a rise of 224.8%. Value growth exceeded the 198.7% increase in the basket’s equivalent capacity. In January–July 2026, recorded value reached $5.77 million, approximately 34.7% above the full-year 2025 total. That percentage should not be presented as year-on-year growth for an equivalent period.
The increase in recorded value indicates a larger financial volume of observed trade. It does not establish importers’ payment schedules or financing terms, and it does not represent total end-user expenditure on solar systems. With the product mix shifting towards modules in 2025, the difference between value growth and capacity growth cannot be attributed to higher prices alone.
The arithmetic relationship can be illustrated by dividing annual value by combined equivalent capacity, after converting megawatts to watts. This produces an indicator of 7.94 US cents per equivalent watt in 2024, rising to 8.63 cents in 2025 and 9.28 cents in January–July 2026. It measures the recorded value of a changing product basket relative to its equivalent capacity. The workbook does not provide a separate module value from which to calculate a module-specific average price.
Ember’s methodology explains that module and cell capacities are estimated using export values and monthly reference prices, rather than measured directly in customs capacity records. The value-to-capacity ratio therefore depends partly on prices already used in the source’s estimation process; it is not an independent price test. A change in the price reference in 2026 also calls for caution when making comparisons.
The available data establish that the composite indicator increased in 2025 and that the expansion in imports did not coincide with a decline in that indicator. Assessing the prices paid by Syrian module importers, retail prices or distribution margins requires detailed invoices, landed costs and product specifications, none of which are available here.
Rapid trade accumulation is not a measure of installed solar capacity
Cumulative equivalent capacity in the series reached 235.29 MW between January 2017 and July 2026. Of that total, 111.73 MW equivalent, or 47.5%, was recorded during 2025 and the first seven months of 2026. This concentration in the final 19 months confirms an acceleration in the available trade record, subject to changes in classification and estimation over time.
For the electricity sector, rising module imports expand the pool of equipment that could become generation assets in Syria. Establishing that conversion requires installation and commissioning data. The cumulative figure combines different stages of the production chain; it therefore does not measure installed solar capacity and cannot be used to calculate electricity generation, the number of households served or fuel displacement.
What do the data reveal about suppliers and competition?
The workbook does not provide a breakdown by supplying country, brand or importing company. It consequently cannot support a calculation of China’s share of Syria’s total market, a ranking of suppliers or a measure of competitive concentration. Recording flows from one origin within a dataset does not mean that origin supplies the entire market.
Chinese customs data also record the first destination country, according to Ember. This analysis therefore does not capture the full extent of products that may reach Syria through re-exports from intermediary countries. The workbook identifies neither the size nor the names of those channels.
The 45.76 MW of modules recorded in the first seven months of 2026 demonstrate an expansion in the observed China-to-Syria trade flow. Describing the market as heavily dependent on China, or dominated by a small number of companies, would require a comparison base that is unavailable. Diversity of supplying countries, diversity of manufacturers within one country and diversity of domestic importers must be assessed separately before drawing conclusions about competition.
Conditional opportunities and measurable risks
The expansion in modules in 2025 draws attention to procurement, inspection, installation and warranty services. It could represent a commercial opportunity if imports translate into sales and actual installations. The workbook, however, does not establish inventory sell-through rates or the profitability of those services. Meanwhile, the concentration of 56.5% of January–July 2026 flows in two months makes inventory and liquidity monitoring more relevant than planning around an assumed steady growth path.
The recording of 11.00 MW equivalent of cells and 5.36 MW equivalent of wafers in 2026 also warrants a separate investigation into the use of industrial inputs. It is insufficient to estimate domestic manufacturing output or the extent of localisation, as there is no information on buyers, industrial processing, finished products or production losses.
Four priorities emerge for turning these signals into commercial decisions:
- Distribution and installation: connect module growth with sales, customer segments, inventories and commissioning schedules.
- Finance and storage: compare import concentration with contract, shipping and payment schedules, as well as inventory turnover.
- Manufacturing and assembly: identify cell and wafer importers, their uses and the actual production associated with them.
- Competition and pricing: complement imports from all countries with invoices broken down by product and manufacturer, alongside landed costs.
Strategic conclusion
The data support a specific conclusion: recorded solar product trade from China to Syria expanded in 2025, finished modules drove that expansion, and momentum continued in January–July 2026. Across equivalent periods, the basket’s combined capacity increased by 177.4%. Yet product diversity, concentrated monthly flows and estimated capacities prevent that result from being reduced to a single figure for the size or pricing of the module market.
The practical priority is now to connect this expansion with sales, installation and commissioning data, while broadening coverage to include other suppliers and trade routes. That would turn the current signal into a defensible assessment of market size, competitive structure and demand for finance and services. Until that information becomes available, these figures provide a sound basis for tracking trade trends, with clear limits on what they reveal about the final market.
Sources and methodology
The quantitative source is Solar panel import-ember-5-sep-2026.xlsx, containing 115 monthly records and 10 annual totals covering January 2017 to July 2026. Calculations used full values before percentages were rounded to one decimal place and capacities to two. Monthly totals reconciled with the sum of product categories across all 10 years, and cumulative values reconciled with the running total of the series.
Value, which is not broken down by product, is presented as the recorded annual value of the basket and is not attributed to modules alone. Data for 2026 cover January–July only; the workbook contains neither August data nor forecasts for the remainder of the year.
Before 2022, customs classifications did not separate assembled and unassembled cells, which Ember groups under modules. Zeros in the cells category for those years therefore do not establish an absence of cell trade. The wafer code and the price reference used in estimation also changed in 2026, limiting direct comparisons across periods.
One date cell contained a text note instead of a date. It was assigned to May 2018 based on the sequence of records and source references, while its original capacity value of 1.91 MW was retained unchanged.
