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Article

Comparison of the Agricultural Production Potential of Mercosur Countries and the EU in the Context of the EU–Mercosur Partnership Agreement

by
Łukasz Ambroziak
1,*,
Iwona Szczepaniak
1,
Oksana Kiforenko
1 and
Arkadiusz Zalewski
2
1
Department of Agribusiness and Bioeconomy, Institute of Agricultural and Food Economics—National Research Institute, 00-002 Warsaw, Poland
2
Department of Agricultural Markets and Quantitative Methods, Institute of Agricultural and Food Economics—National Research Institute, 00-002 Warsaw, Poland
*
Author to whom correspondence should be addressed.
Sustainability 2025, 17(24), 11135; https://doi.org/10.3390/su172411135
Submission received: 13 November 2025 / Revised: 5 December 2025 / Accepted: 10 December 2025 / Published: 12 December 2025
(This article belongs to the Collection Sustainable Development of Rural Areas and Agriculture)

Abstract

The Mercosur countries (also known as the Southern Common Market countries) and the European Union (EU) Member States are two major global agri-food exporters whose production structures, patterns of specialisation and sustainability standards differ significantly. The upcoming entry into force of the EU–Mercosur Partnership Agreement (EMPA) may alter competitive conditions in the EU agri-food markets, as its most important component—the EU–Mercosur Interim Trade Agreement—provides for tariff liberalisation. The aim of this article is therefore to compare the agricultural production potential of Mercosur and the EU countries using a set of indicators grouped into production factors (land, labour and capital), productivity, production structure, and qualitative sustainability-related factors. The analysis employs comparative and dynamic statistical methods (including compound annual growth rates and measures of variability). The study is based on FAOSTAT data for 2018–2023, complemented by information on regulatory frameworks and EMPA provisions. The results show that agriculture in Mercosur is land-abundant, cost-efficient, and oriented toward export-driven livestock and commodity production, while the EU is characterised by higher capital intensity and significantly higher land and labour productivity. These structural asymmetries, reinforced by lower input costs and less stringent production standards in Mercosur, suggest increased competitive pressure in the EU market after EMPA implementation, particularly in beef, poultry, sugar and ethanol. The findings highlight the need for continuous monitoring of market dynamics and, where necessary, the activation of safeguard mechanisms. The study provides also an updated evidence base to support policymakers in assessing the implications of the EMPA.

1. Introduction

The Mercosur countries (also known as the Southern Common Market) and the European Union (EU) Member States are among the most important players in global agri-food trade [1]. In 2024, they accounted for 9.6% and 12.8% of global agri-food exports and 1.2% and 11.6% of global agri-food imports, respectively [2]. The significant share of these regions in global trade is a consequence of the role that the agri-food sector plays in the economies of both blocs, including the productive capacity of their agriculture [3,4]. Particularly noteworthy is the rise in Brazil and Argentina as exporters of agri-food products, a trend observed during the first decade of the 21st century [5]. Both blocs are significant net exporters of agri-food products, but their production structures, patterns of specialisation and sustainability standards differ significantly. Mercosur countries have advantages in the production of agricultural raw materials such as beef [6,7], poultry, soybeans and sugar, while the EU has comparative advantages in highly processed goods, dairy products and high-quality, value-added foods [8,9].
The differences in the patterns of trade specialisation of the two blocs are reflected in their mutual EU–Mercosur agri-food trade. This trade is characterised by a clear asymmetry in turnover, with EU imports from Mercosur countries far exceeding EU exports to the region. The commodity composition of mutual trade is also different [10]. The EU mainly imports raw materials and intermediate products for processing from Mercosur countries (e.g., high-protein soybean meal, coffee, soybeans, orange juice and unprocessed tobacco) as well as products typical of other climate zones (e.g., peanuts, citrus fruits) [11,12]. Around a dozen percent of EU agri-food imports from Mercosur consist of sensitive products for the EU agri-food sector, including beef, sugar, poultry, meat products, and ethyl alcohol. Conversely, the EU countries export mainly processed products to Mercosur, such as edible oils, wine, protein concentrates, confectionery and bakery products, chocolate products, frozen chips, pasta, beer, vodka and whisky [8].
In December 2024, after nearly 25 years of negotiations, representatives of the Mercosur countries and the EU reached an agreement to conclude the EU–Mercosur Partnership Agreement (EMPA) between the two parties [13]. A preliminary agreement had already been reached earlier, in 2019. However, due to a number of concerns about the adequate inclusion of environmental and sustainability issues in the agreement, the talks were temporarily suspended, and negotiations did not resume until 2023 [14,15]. They renewed talks addressed both the aforementioned issues and the changed international environment, including growing competition from China and the resurgence of U.S. protectionism [16,17,18]. On 3 September 2025, the European Commission recognised the EMPA as a mixed agreement and presented the modalities for its adoption. Pending ratification by national parliaments, an interim trade agreement is expected to enter into force. The European Commission has submitted this agreement to the Council (qualified majority required) and to the European Parliament (simple majority required) for approval [19].
The EMPA implementation has the potential to significantly alter the conditions of competition in the EU agri-food market [20]. The most important element of this agreement, embodied in the EU–Mercosur Interim Trade Agreement (ITA), provides for extensive measures to facilitate access to the markets of both parties, including liberalisation of tariffs on the import of most agri-food products from Mercosur countries into the EU [21,22]. This is particularly important, as the previous experience of the Mercosur countries with tariff liberalisation within the bloc has shown a positive impact of integration on agri-food trade within this grouping [1,5]. Indeed, agri-food products are among the most sensitive categories from the perspective of both partners, as their significance often extends beyond the economic dimension to include social, environmental, and political issues [3]. From the perspective of EU farmers, the EU–Mercosur agreement raises concerns about the influx of commodities produced at lower costs and under different regulatory frameworks, potentially unsustainable, and consequently posing a risk of reduced competitiveness [15,23].
To-date research has focused primarily on assessing selected components of the agricultural production potential of individual Mercosur countries [24] and the EU Member States (e.g., Poland [20]), as well as the production potential of selected sectors [6,7], particularly analysed through the prism of environmental conditions [25,26]. The research has also examined the trade potential of these countries in the context of agri-food trade [5,27]. What is lacking in the literature, however, are in-depth comparative analyses of the agricultural production potential of the Mercosur countries and the EU as an integrated bloc, in particular analyses that present the current state of this potential, i.e., taking into account the new geopolitical conditions after the COVID-19 pandemic and the ongoing war in Ukraine. This gap is particularly relevant in the context of the current discussions on the imminent entry into force of the EU–Mercosur Partnership Agreement.
The purpose of this article is to compare the agricultural production potential of Mercosur and EU countries on the eve of the entry into force of the EU–Mercosur Partnership Agreement. In particular, the authors aim to answer the questions of whether EU countries, in view of the agricultural production potential of Mercosur countries, should be concerned about increased competition from these countries in the agri-food sector and whether differences in production potential could pose a threat to EU agriculture after the agreement enters into force. Answering these questions is expected to provide an innovative contribution to the research problem.
The novelty of this study stems from its use of the most recent post-2020 data and the finalised provisions of the EU–Mercosur Partnership Agreement from December 2024, combined within a multi-dimensional analytical framework that integrates structural, productivity and sustainability-related indicators. This approach enables a comprehensive and up-to-date comparison of the production potential of both blocs. By capturing the complex set of indicators that shape agricultural competitiveness, the study provides an evidence base particularly relevant to the current policy debate on the expected impacts of EMPA.
The article consists of an introduction, four substantive chapters, and a conclusion. The first chapter, theoretical in nature, presents the main provisions of the EU–Mercosur Partnership Agreement, discusses the concept of production potential in the light of the literature, and reviews selected research studies. The second chapter contains a description of the research method used, i.e., the formulations and interpretations of the indicators and the data sources. The third chapter provides an in-depth comparative analysis of the agricultural production potential of Mercosur and the EU countries, while the fourth chapter presents a discussion of the results. The article concludes with a final summary and conclusions.

2. Literature Review

2.1. The Main Provisions of the Agreement on Imports of Agri-Food Products from Mercosur Countries to the EU

The Interim Trade Agreement Trade between the European Union and the Common Market of the South (EU–Mercosur ITA) is the most important element of the Partnership Agreement between the parties (EMPA) [19]. It contains provisions aimed at facilitating mutual trade, including trade in agri-food products. This agreement provides primarily for the liberalisation of tariffs, granting EU producers greater access the Southern Common Market, as well as Mercosur producers greater access to the EU market. An important element of the agreement is also the regulation of other areas falling under the EU’s exclusive competence, such as non-tariff barriers—including sanitary and phytosanitary measures—as well as trade defence instruments, products with geographical indications, and trade in the context of sustainable development.

2.1.1. Customs

The provisions adopted in the EMPA for the liberalisation of customs duties on imports from Mercosur countries to the EU are similar to those applied in other agreements. The complete elimination of tariffs upon the entry into force of the agreement will occur only for the least sensitive products in EU imports from Mercosur. For imports of more sensitive products (around 43% of tariff lines relating to agri-food products), tariffs will be eliminated gradually over a period of four, seven or ten years. After the expiry of the transitional periods, duty-free access to the EU market will apply to products imported from Mercosur covering nearly 81% of the tariff lines relating to agri-food products [28].
For sensitive products (more than 300 tariff lines), the EMPA provides for the establishment of 22 tariff-rate quotas (TRQs) on imports from Mercosur to the EU. Within the quotas, it will be possible to import a certain quantity of products at a zero rate, a fixed preferential rate, or a gradually reduced preferential rate [19]. Only four quotas provide for a fixed amount of preferential imports each year. For the remaining quotas, it was agreed that the volume of products would increase annually until the target level was reached, usually in the sixth year of the contractual term. For EU imports, quotas have been established for beef (fresh or chilled and frozen), cheese, eggs, egg albumin, pork, poultry (bone-in and boneless), milk powder, honey, garlic, ethanol, infant formulae, maize and sorghum, sweet maize, cane sugar for refining, other sugar, rice, rum, and maize and cassava starch. The most sensitive products (more than 100 tariff lines), from the point of view of the EU agri-food sector, were excluded from liberalisation. The exclusions include, inter alia, sheep, lamb and goat meat (except salted and dried meat covered by the tariff quota), certain milk and cream powder, buttermilk, whey, certain spreads containing butter, mozzarella, durum wheat, wheat (except seed wheat) and sugar, except cane sugar for refining.

2.1.2. Other Provisions

The EMPA reaffirms the rights and obligations of the parties under the WTO Agreement on the Application of Sanitary and Phytosanitary Measures (SPS Agreement), as well as their commitments to ensure the transparency of SPS measures. Reference was also made to the principles of regionalisation, equivalence, and precaution [23]. The EU–Mercosur ITA also includes a chapter on dialogues on issues related to the agri-food chain. Its purpose is to create a platform for the exchange of information between parties on production, processing, distribution and food safety standards. The EMPA, therefore, does not remove specific non-tariff barriers to agri-food trade between the parties but rather establishes mechanisms for cooperation and dialogue aimed at gradually reducing these barriers [19].
In addition to global safeguards, the agreement also establishes bilateral safeguard measures that apply to all products, not only agri-food ones. In response to numerous protests by EU farmers highlighting the inadequacy of the proposed provisions to the specificities of the agricultural sector, the European Commission proposed, in early September 2025, to attach a sector-specific bilateral safeguard clause for the agri-food sector to the agreement [19]. This clause is intended to allow the temporary restriction of preferential imports from Mercosur to the EU if such imports were to cause serious damage to the EU agri-food sector. The mechanism of this clause is based on continuous market monitoring and the possibility of a rapid investigation in the event of a surge in imports or a decline in prices. In practice, the safeguard measures may involve the temporary suspension of the tariff-reduction schedule for the product concerned, or a reversion of the tariff preference to the MFN or base rate (whichever is lower) [23].
An important part of the agreement is the chapter on Trade and Sustainable Development (Chapter 18). This chapter is intended to ensure that the liberalisation of tariffs in trade between the EU and Mercosur does not encourage deforestation or lead to a lowering of environmental protection and labour standards in Mercosur countries [19]. The parties reaffirm their commitments to implementing the Paris Agreement on climate change and to taking action to reduce deforestation and promote sustainable development, including through measures related to animal welfare. The agreement also provides for a mechanism for dialogue and cooperation to monitor the implementation of the commitments [22]. However, the Trade and Sustainable Development chapter largely consists of declaratory provisions and lacks effective enforcement mechanisms.

2.2. The Concept of Production Potential

The literature sources on the subject approaches the production potential of a country’s or region’s agriculture in various ways. The prevailing general approach views it as a combination of resources, production capacity, and external conditions. However, different researchers define the individual components of potential in more detail, giving them different meanings. The production potential of agriculture can, for example, be determined by natural resources (such as land and water), their utilisation methods, natural conditions (climate, biodiversity), labour resources, technical infrastructure and technologies, and economic conditions [29]. It can also be further classified according to: climatic conditions—including the distribution of temperatures and the amount and distribution of precipitation, which determine the length of the growing season and hydrological conditions; the area, structure, and qualitative characteristics of agricultural land; livestock populations; the demographic situation in rural areas, which determines labour resources; and the ownership and size structure of farms [30,31]. Potential can also be understood in a dynamic sense, meaning that it is not merely a finite sum of resources, but is characterised by the ability to combine them productively through investment, innovation, and integration into value chains [32,33]. The FAO adopts an agro-ecological approach, which takes into account components of potential such as climate, soil, and crop technologies [34]. International institutions such as the OECD and the World Bank adopt an economic approach, emphasising the role of market conditions, infrastructure, institutional frameworks, and the regulatory environment in enhancing the capacity of the agricultural sector [35,36].
According to the approach adopted in the literature, research uses different methods to measure the production potential of the agricultural sector, both biophysical and economic. Biophysical measures include, in particular, indicators describing soil quality and fertility, water conditions, rainfall totals, and temperatures [37,38]. Among economic measures, total factor productivity (TFP)—calculated using Törnqvist or Malmquist indices—predominates, often employing Data Envelopment Analysis (DEA) or Stochastic Frontier Analysis (SFA) models to isolate technical efficiency and changes in the technological frontier [39,40]. Taxonomic methods (e.g., Hellwig’s method, TOPSIS) are used to construct synthetic indicators of potential at the district or municipal level [41]. These are complemented by measures such as investment activity, innovation activity, R&D spending, and export competitiveness [42]. Cross-country comparisons are based on the analysis of available data series from FAO, OECD, the World Bank, and FADN/IFCN farm-level databases [43]. Agricultural economists seek to combine both approaches—that is, to analyse the productive potential of agriculture from an economic perspective, in a dynamic and spatial context—by assessing the structure of this potential and the relationships between its individual components, including the productivity of production factors, technical efficiency, profitability, and the financial sustainability of farms, complemented by qualitative indicators [44,45,46]. For EU countries, the impact of the Common Agricultural Policy (CAP)—through subsidies and investment programmes—on capacity development is also sometimes taken into account [47]. In addition, the literature points to limitations in the harmonisation and comparability of data, both administrative data for individual countries and micro-level data, which result in significant underestimation of agricultural potential. Remote sensing-based monitoring [48] could provide a partial solution to this problem.

2.3. Review of Selected Research Results

Although the EU and Mercosur countries are important players in global agri-food trade, the literature sources lack in-depth comparative analyses of the agricultural production potential of the two blocs as a whole. In particular, there are no studies presenting the current state of this potential, i.e., taking into account the new geopolitical conditions following the COVID-19 pandemic and in the context of the ongoing war in Ukraine. The only study known to the authors that compares the agricultural production potential of the EU and Mercosur ends in 2019 [49]. Existing research has focused primarily on assessing selected components of the agricultural production potential of individual EU and Mercosur countries. Differences in production potential and farm efficiency within the EU have been examined, among others, by Pawlak, Smutka and Kotyza [30]; Tłuczak [50]; Smędzik-Ambroży and Sapa [51]; as well as Guth and Smędzik-Ambroży [52]. These studies show that there is regional variation in the availability of production factors in EU agriculture, which implies differences in the technical efficiency of farms [50]. It has been found that the level of technical efficiency in the agriculture of the new EU Member States is higher than in the EU-15 as a whole [52]. At the same time, it has been indicated that higher productivity in agriculture characterises the EU-15 countries rather than the new Member States [51,53]. Some studies have addressed the production potential of selected EU countries [54], the Visegrad Countries [55], or even individual EU countries, such as Poland [20] or Romania [56]. Changes in the production potential of Mercosur countries have been analysed, among others, by Grytz and Guero (for Brazil’s agri-food sector) [57]. In some cases, analyses have been limited to the production potential of selected sectors, such as beef in Brazil [6,7] or soybeans in Brazil [24]. Many authors have referred to the production potential of Mercosur agriculture through the prism of environmental factors [25,58,59], including those related to deforestation [60]. Baležentis et al. [61] and Prus [62] have, in turn, addressed environmental issues related to EU agriculture.
A separate group of studies consisted of analyses taking into account the impact of the EU–Mercosur agreement on the EU agri-food sector. Research conducted to date suggests that trade liberalisation under the agreement will have a negative impact on the agri-food sector of EU countries, which is considered particularly sensitive [63]. However, as Gohin and Matthews point out [64], these studies have several limitations. Firs, studies using quantitative methods, including computable general equilibrium models, considered multiple scenarios rather than the final provisions of the agreement, not made public until December 2024 [65,66]. Second, the model-based estimates were mostly produced for individual countries—Spain [67], Ireland [68], Austria [69], the Netherlands [70], France [71] and Sweden [72]. Third, some research analysed in detail the impact of the EMPA on the EU agri-food sector but did not employ advanced quantitative methods [8]. Fourth, other studies focused on the cumulative impact of EU free trade agreements with third countries on the EU agri-food sector [27]. The most comprehensive study estimating the impact of the EMPA on the EU agri-food sector, particularly on beef, is that conducted by Gohin and Matthews [64]. This is because they used the most up to date 2017 GTAP database and incorporated the final provisions of the agreement, made public in December 2024, into their model. Their estimates show that, as a result of liberalisation, the income of EU beef producers will decrease by only 0.4% and that of all EU agri-food producers by only 0.1%. This reduction is therefore considerably smaller than if tariffs on imports of agri-food products from Mercosur countries to the EU were to be completely abolished. In 2025, Hagemejer et al. updated the 2019 study prepared for the European Parliament [73] analysing the impact of the EMPA on the agri-food sector. They took into account the provisions of the agreement announced in December 2024. The new estimates indicate that tariff liberalisation after the entry into force of the agreement will contribute to a decrease in EU sugar production by 0.7% and in beef production by 0.4% [73].

3. Method and Data Sources

An assessment of the agricultural production potential of Mercosur and EU countries was carried out using comparative statistical methods, analysis of structural change and dynamics [74] based on selected indicators commonly used in the literature sources. These indicators are shown in Table 1. They are grouped into six categories: production resources and factors, relationships between production factors, prices of production factors, gross value added, productivity, and other qualitative factors determining potential.
Production resources and factors refer to the basic resources (land, labour, and capital) that determine the scale of agricultural activity. Relationships between production factors describe the way in which the various factors complement or substitute for one another, thereby affecting economic efficiency. The prices of production factors represent the cost of using these inputs, which influences the profitability of agricultural production. Gross value added denotes the newly created value in agriculture, determining its contribution to GDP. Productivity reflects the efficiency of factor use, i.e., the output obtained per unit of input.
For each country bloc and each selected indicator, a set of selected statistical indicators was calculated and presented in the tabular form. To capture the average level of the agricultural potential indicators, the arithmetic mean was calculated according to the formula:
x -   =   1 n i   =   1 n x i
where
  • x - —mean value of the indicator;
  • x i —observation in period i ;
  • n —number of observations.
To account for the dynamics of changes in the mentioned indicators, the compound annual growth rate (CAGR) for the period 2018–2023 was calculated according to the following pattern:
C A G R   =   x t x 0 1 T 1
where
  • x 0 —value of the indicator in the initial year (2018);
  • x t —value of the indicator in the final year (2023);
  • T —number of years.
To assess the stability and variability of indicators concerning agricultural potential over time, the dispersion measures were computed. Standard deviation was derived using the next formula:
S D   =   1 n 1 i   =   1 n x i x - 2
Furthermore, the coefficient of variation (CV) was calculated to compare relative variability across indicators and country blocs:
C V   =   S D x - × 100 %
where
  • C V —coefficient of variation expressed as a percentage.
These measures provide a comprehensive overview of both the level and temporal variability of selected indicators concerning agricultural potential across the analysed country blocs.
To ensure the comparability of the statistics, the data were obtained from the FAOStat database. Due to the lack of relevant data disaggregated for the Agriculture section, the data covering the Agriculture, Hunting, Forestry, and Fishing sectors combined were used in definite cases. The European Union (EU) is understood as the 27 EU Member States, excluding the UK. Mercosur is understood to include the following countries: Brazil, Argentina, Paraguay and Uruguay.
The time frame of the research covers the years 2018–2023. The year 2018 was chosen as the starting point of the analysis because it was the last year before major negative externalities in the global economy became apparent—notably, the rise in U.S. protectionism during Donald Trump’s first presidency, the COVID-19 pandemic, and the war in Ukraine.
The adopted approach, although methodologically not sophisticated, is fully adequate for providing a structured and comparable assessment of agricultural production potential across the EU and Mercosur. Its key strength lies in its multi-dimensional character, integrating structural, productivity and sustainability-related indicators into one coherent analytical framework. This allows for a comprehensive comparison that captures the complexity of production systems in both blocs despite limitations in data harmonisation.

4. Research Results

4.1. Factor Resources and Inputs

The agricultural land area of the Mercosur countries is almost 2.4 times larger than that of the EU, with an upward trend throughout the analysed time frame, except in 2023, while in the EU, the mentioned area shows a downward trend, except in 2019 (Table 2). The same situation can be observed for the arable land area, with Mercosur exceeding the EU by approximately 3.4 million hectares (mln ha) [75]. On the contrary, the area of permanent crops is around 3 million hectares smaller in Mercosur than in the EU, while the area of permanent meadows is approximately five times larger in Mercosur than in the EU. As confirmed by the basic statistics of the analysed production factors, land resources in both regions remain relatively stable over time, but their structure differs considerably, with the extensive permanent meadows in Mercosur pointing clearly to the livestock specialisation of its agriculture.
When comparing the number of people employed in agriculture across the analysed country blocs, it should be noted that approximately 2.2 million fewer employees work in the agricultural sector of the EU than in Mercosur (Table 3). The tendency toward a decrease in agricultural employment is common to both regions, with a single exception in 2021, when an increase was observed in Mercosur [76,77], which is also reflected in the negative CAGR values for agricultural employment in both blocs. This trend may indicate an increase in mechanisation processes in the agricultural sectors of both blocs, a decline in the attractiveness of agricultural employment, natural migration processes, and other related factors. The net capital stock in agriculture, forestry, and fishing is approximately 912 billion USD higher in the EU than in Mercosur, indicating a greater capacity in the EU economies to produce goods and services. This, in turn, leads to higher potential output and economic growth, as more capital can be used to enhance productivity in the analysed sector. Mercosur tended to reduce its net capital stock in agriculture, forestry, and fishing in 2019 and 2020, with an increase observed toward the end of the analysed period. In contrast, this indicator decreased in 2019 and 2022 in the EU, while increasing in the remaining years. These patterns reflect not only structural differences in labour and capital resources but also their distinct dynamics over time, with the EU showing more stable capital accumulation and Mercosur exhibiting more variability in both employment and capital trends (Table 3).

4.2. Relationships Between Production Factors

During the analysed period, the Mercosur countries had approximately twice as much agricultural land per employee as the EU countries (Table 4). This indicates that agriculture in Mercosur is more extensive and land intensive. Conversely, the number of people employed per 100 hectares of agricultural land was almost twice as high in the EU as in Mercosur, suggesting that EU agriculture is more labour-intensive [43]. The net capital value per employee was several times higher in the EU than in Mercosur, meaning that EU agriculture is more capital-intensive and mechanised. This is also confirmed by the data on the net capital value per hectare of agricultural land.
Between 2018 and 2023, both country blocs experienced an increase in their net capital per employee and per hectare of agricultural land. During the analysed period, the value of net capital per employee in the Mercosur countries increased by nearly 28.9%, while in the EU it grew by 21.8% [43]. At the same time, the net capital value per hectare of agricultural land in the Mercosur countries rose by 26.3%, compared with only 10.2% in the EU. Despite the higher growth dynamics observed in the Mercosur countries, the differences in the capital intensity of agriculture between Mercosur and the EU have further deepened. The EU continues to steadily increase its capital expenditure, while Mercosur maintains a more extensive agricultural system. At the same time, the number of workers per 100 hectares of agricultural land in the EU has significantly decreased, which may indicate rising labour productivity (Table 5).

4.3. Prices of Production Factors

Available statistics for selected Mercosur and EU countries showed that labour costs (expressed as average monthly agricultural wages) and energy costs (expressed as diesel price) in the Mercosur countries were lower than in the EU (Figure 1). For example, the average monthly earnings in agriculture, forestry, and fishing in Brazil in 2023 amounted to only 25% of the average monthly wage in Poland, 15% of that in Italy, and less than 10% of that in the other selected countries—Belgium, Denmark, France, Germany, and the Netherlands [78]. The differences in diesel prices between Mercosur and EU countries were smaller than those for average monthly wages in agriculture, forestry, and fishing. For instance, in October 2025, the price of one litre of diesel in Brazil was about one-third lower than in Poland and about half the level recorded in the other EU countries mentioned [79]. Lower labour and fuel costs, therefore, translate into lower production costs in Mercosur agriculture, making its products more price-competitive in foreign markets, including in the EU market.

4.4. Efficiency of Production Factor Use

The value added in agriculture, forestry, and fishing in the EU was, on average, about 95.5% higher than in the Mercosur countries during the analysed period (Table 6). The largest difference between the two blocs was observed in 2019 (around 125%), while the smallest occurred in 2023 (around 67.5%) [80]. This significant disparity demonstrates that the EU has been more successful than those of Mercosur in increasing the market value of their agricultural products through processing, product and brand development, and the expansion of agro - service offerings, among other factors. The dynamics of value added in agriculture, forestry, and fishing did not vary greatly between Mercosur and the EU. An upward trend was observed in Mercosur between 2020 and 2023, and in the EU from 2021 onwards. This positive tendency suggests that both regions not only acknowledge the importance of transforming their agricultural sectors but are also actively promoting the shift from raw material production to higher value-added processing.
Despite the differences in absolute values described above, the shares of value added in agriculture, forestry, and fishing in the GDPs of the two regions differ in another way. On average, this share amounted to around 1.6% in the EU, compared with approximately 7.3% in Mercosur during the analysed period [80]. Furthermore, a consistent upward trend was observed in the Mercosur countries (except in 2022), whereas in the EU, the share of value added increased only twice—in 2020 and 2022. Consequently, agriculture, forestry, and fishing contribute a significantly larger share to the economic output of Mercosur, making them more important for the economies of its member countries. In contrast, other sectors—such as industry and services—play a more dominant role in generating GDP in the EU.
Land productivity in the EU is, on average, 4.6 times higher than in Mercosur over the analysed period, reflecting greater agricultural efficiency, stronger food security, and more favourable economic development prospects for the EU (Table 7). Labour productivity is also higher in the EU than in Mercosur—by approximately 2.4 times on average during the analysed period—indicating greater efficiency resulting from factors such as advanced technology, higher worker skills, and more effective management practices in EU agriculture compared with that of the Mercosur countries [43]. Despite the differences mentioned above, the trend in labour productivity is similar in both regions, showing a decline in 2019 followed by an increase throughout the remainder of the analysed period.
A completely different situation, however, is observed when assessing the efficiency of capital use in agriculture in the two blocs. This indicator is approximately 3.6 times higher in the Mercosur countries than in the EU during the analysed period (average values: Mercosur—0.89; EU—0.25). This, in turn, suggests that Mercosur countries are able to generate higher agricultural output with lower levels of capital investment—such as machinery, technology, and financial resources—leading to greater profitability and productivity by producing more value from the same amount of capital or achieving similar results with less capital input.

4.5. Output of Basic Agricultural Products

When analysing livestock dynamics, the difference in the number of cattle and buffaloes between the two blocs is particularly striking, as it represents the largest disparity among the livestock types examined (Table 8). On average, the Mercosur countries had almost four times more cattle and buffaloes than the EU during the analysed period. Moreover, the trend for this livestock category is upward in Mercosur throughout the entire period under review, whereas it is downward in the EU [81]. Other livestock types in which Mercosur countries surpass the EU are goats and poultry. On average, Mercosur has approximately 1.4 times more goats and 1.1 times more poultry than the EU. The dynamics of these livestock types also differ between the two regions: in Mercosur, the number of goats shows an upward trend (with a single exception in 2021), while in the EU it declines. Similarly, poultry numbers increase steadily in Mercosur but fluctuate in the EU, with growth observed in 2019, 2020, and 2022.
At the same time, the EU surpasses Mercosur in the number of swine and sheep. The EU has almost 2.9 times more pigs and 1.5 times more sheep than the Mercosur countries. However, despite this seemingly favourable situation, the dynamics are far less positive: the number of pigs in the EU shows a downward trend (except in 2020), whereas in Mercosur it tends to increase (except in 2019 and 2023). Similarly, sheep numbers in the EU have been declining, while in Mercosur they show an upward trend, with a temporary decrease observed only in 2021.
When comparing the dynamics of plant product production in the EU and Mercosur, it should be noted that, overall, cereal production was approximately 1.3 times higher in the EU during the analysed period (Table 9). However, two crops in particular—rye and rapeseed—stand out, showing the largest production differences between the two regional blocs: rye production was about 46.8 times higher and rapeseed about 43 times higher in the EU than in the Mercosur countries [81]. Other plant products produced in greater quantities in the EU than in Mercosur include wheat (4.8 times), barley (9.4 times), and sunflower seeds (2.5 times) on average over the analysed period. Therefore, these crops can be seen as major opportunities to increase the EU’s agricultural export volumes to Mercosur. Conversely, Mercosur countries produce almost 66 times more soybeans and 2.5 times more maize than the EU. Given their competitive prices, these two crops represent an important opportunity for import diversification in the EU countries with strong livestock sectors, providing an alternative source of feed imports. The basic statistical indicators further highlight these structural differences, showing that Mercosur not only produces significantly larger quantities of soybeans and maize but also records higher growth dynamics in these crops, while the EU exhibits greater stability and lower variability in the production of cereals such as wheat, barley, and rye (Table 10). These results reinforce the complementary nature of plant production in both blocs and underline the potential for mutually beneficial trade expansion.
A completely different pattern emerges when comparing meat production between the two regions. Similarly to livestock numbers, the Mercosur countries produced more beef and buffalo meat (around 2.1 times) and poultry meat (about 1.3 times), while the EU produced roughly four times more pig meat during the same period (Table 9). This could represent an opportunity for EU countries to diversify their imports of these types of meat, while at the same time introducing additional competition for those specialising in exports. As for milk production, the EU produced approximately 3.2 times more milk than Mercosur countries during the analysed period. This, in turn, represents a significant opportunity for the EU’s milk production and processing industries to expand their export destinations by introducing their products to the Mercosur market. The basic statistical indicators further confirm these contrasting production profiles, showing relatively stable and moderately growing beef and poultry output in Mercosur, declining pig meat production in the EU, and very low variability in milk production in both blocs (Table 10). These patterns reinforce the structural specialisation of Mercosur in beef-oriented production and of the EU in pig meat and dairy, highlighting clear areas for potential trade complementarity.

4.6. Factors Determining the Quality of Agricultural Production Potential

The analysis of agricultural production potential also requires an assessment based on qualitative indicators. In the context of the Mercosur countries, the scale of pesticide use (measured by the consumption of active substances in plant protection products) is particularly important. Farmers in these countries are not required to comply with many of the production-related standards that apply to EU farmers [82]. Hence, farmers in Mercosur countries are able to produce food more cheaply. In particular, the use of many pesticides banned in the EU—which contribute to higher yields—is still permitted in Mercosur countries. Brazil, for example, uses around 3670 types of pesticides, about 30% of which have been banned in Europe for nearly two decades [83]. Approximately 60% of all plant protection products used in Brazil are herbicides, while the remaining 40% is split roughly evenly between fungicides and insecticides. The five main crops—soybeans, maize, cotton, sugarcane, and green pastures—account for 87% of Brazil’s total pesticide use, with soybeans alone responsible for 54% of all pesticides applied in the country. This is due not only to the vast area under cultivation of this crop, but also to the widespread use of zero-tillage farming, where site preparation for sowing is limited to chemical weed control, and to the popularity of genetically modified (GMO) varieties resistant to herbicides. It is worth noting that although many GMO varieties are resistant to pests, this resistance does not extend to all pest species, necessitating the continued use of insecticides. Several fungicide treatments are also routinely applied [84]. According to the Brazilian Institute of Environment and Renewable Natural Resources (IBAMA), the most commonly used pesticides in Brazil in 2022 included glyphosate, 2,4-D, atrazine, mancozeb, acephate, chlorothalonil, diquat, glufosinate ammonium, chlorpyrifos, methomyl, and paraquat. Of these products, only the first two are authorised for use in the EU [84].
FAO data [85] show that 800.7 thousand tons of active substances contained in pesticides were used in Brazil alone in 2023, compared with only 292.3 thousand tons in the EU-27. The most commonly sold active substance in Brazil was glyphosate, with 253.3 thousand tons sold [84]. In the EU, glyphosate is permitted but only under specific conditions. More than 40% of the pesticides sold in Brazil were classified as Class II (very hazardous to the environment), and over half as Class III (hazardous). This record level of pesticide use is sometimes referred to as “agrotoxicity” [83]. The sales figures are consistent with statistics on pesticide application per hectare (Figure 2). In 2023, 12.6 kg of active substance per hectare was applied in Brazil and 6.33 kg/ha in Argentina, compared with 1.73 kg/ha in Poland and 2.67 kg/ha in the EU [85].
The differences in production standards between Mercosur countries and the EU are well illustrated by statistics on the amount of authorised active substances and the maximum residue limits (MRLs) for these substances [86]. In addition to the aforementioned 30% of active ingredients used in Brazil that have been banned in the EU, it should be noted that the maximum residue limits (MRLs) allowed in agricultural products are significantly higher in Mercosur countries than in the EU (Table 11) [25]. They range from 10 times higher levels for glyphosate in coffee to 400 times higher thresholds for other pesticides, such as malathion in beans.
EU countries also have a different approach to genetically modified (GM) crops than Mercosur countries. In the EU, it is possible to grow only one GM crop—maize—and only in Spain and Portugal. The Mercosur countries, in turn, are global leaders in terms of GM crop acreage. In 2024, Mercosur countries account for 46.5% of the global GM crop area (97.6 million hectares) [87]. Brazil has the second-largest area under GM crops in the world, after the United States, and Argentina is the third largest.
The EU therefore applies double standards in the area of pesticide regulations [82,88]. On the one hand, the use of many active substances is banned in the EU (e.g., atrazine, mancozeb, chlorpyrifos). On the other hand, pesticides containing these active substances continue to be produced and exported within the EU. Mercosur countries are among the main recipients of these products. In other words, EU countries export pesticides to Mercosur while importing agricultural products from Mercosur that were cultivated using pesticides banned in the EU.

5. Discussion

An analysis of the production potential of Mercosur agriculture confirms that the entry into force of EMPA is likely to intensify competitive pressures on the EU agri-food sector, but the magnitude and channels of this pressure are highly sector-specific. Mercosur countries are less well endowed with fixed assets but make better use of them. The value of net fixed assets (e.g., machinery, equipment) per employee in the EU is more than eight times higher than in Mercosur, and per hectare of agricultural land as much as sixteen times higher. However, capital productivity—i.e., value added per USD of net fixed assets—is around 3.5 times higher in Mercosur than in the EU. Combined with significantly lower labour and fuel costs, this configuration translates into lower unit production costs and reinforces the price competitiveness of Mercosur products in international markets.
Hence, it can be expected that the liberalisation of tariffs under the agreement will contribute to an increase in imports of agri-food products from Mercosur to the EU, as indicated by numerous previous studies [8,22,64,73]. However, an uncontrolled influx of food is unlikely, as the regulations adopted in the agreement are designed to prevent this [19]. First, transitional periods of up to several years have been introduced for the import of most products from Mercosur into the EU. Second, the target volumes of preferential quotas for the import of certain sensitive products into the EU are to be reached only after several years of the contractual period. Third, a number of products sensitive to the EU agri-food sector have been excluded from liberalisation. Thus, for these products, no additional competitive pressure will arise at the moment of entry into force. Finally, the agreement provides for the possibility of activating a bilateral safeguard mechanism [23], and the European Commission also advocates the establishment of a specific bilateral safeguard for agri-food products [19].
Much of the debate in public discussion centres on the duty-free or preferential tariff quotas granted to Mercosur countries for imports into the EU. These mainly concern products that are characterised by both the strong production potential of the Mercosur countries and their high sensitivity from the point of view of the EU agri-food sector. These include beef, poultry, sugar, and ethanol [23]. Our results confirm that these are precisely the sectors where Mercosur’s cost advantages and factor productivity gaps are the most pronounced, which is consistent with earlier model-based analyses [22,64,73]. Most analyses to date indicate that these tariff quotas will provide sufficient protection for the EU’s sensitive sectors [22,64,89,90]. The European Commission also argues that the target volumes of the preferential or duty-free quotas—which normally apply from the sixth year of the contractual period (and, in the case of dairy products, from the eleventh year) represent a negligible proportion of total EU production of the products concerned.
The discussion on EMPA cannot be separated from broader concerns about environmental issues. As much as three-fourths of the agricultural area in Mercosur countries consists of permanent grassland. This farmland structure favours the development of livestock production, in particular beef and dairy production—sectors that are important for international trade and highly sensitive within EU agriculture. Permanent grassland can also be converted into arable land and used to grow crops such as sugarcane and soybeans, for which demand may increase after the agreement enters into force [58]. Nonetheless, some authors argue that the liberalisation of tariffs and the expansion of export-oriented production of certain commodities in Mercosur countries may contribute to increased deforestation [24,91,92] and higher greenhouse gas emissions [26,93]. Although Mercosur’s land availability offers scope for expanding export-oriented production, the impact of EMPA will interact with new EU regulations such as the EU Deforestation Regulation (EUDR) [94], which restricts market access for products linked to deforestation [95].
The differences in crop and livestock production standards—particularly regarding sustainability—between the two trade blocs are clearly illustrated by the greater use of pesticides in Mercosur countries compared to the EU. These regulatory asymmetries contribute to lower production costs in Mercosur and are increasingly central to EU debates about the need for greater reciprocity in sustainability standards. Although the agreement contains numerous obligations for both parties in terms of environmental protection and labour rights, it does not provide for strict enforcement mechanisms or hard sanctions for non-compliance [21]. In response, some have proposed including mirror clauses in free trade agreements (FTAs) [96,97]. Such a clause would require that products imported into the EU meet the same environmental, sanitary, and production standards as goods produced within the EU. This is intended to ensure fair competition and protect the EU’s high-quality and sustainability standards. At the same time, it is important to stress that EMPA does not alter the fundamental requirement that all imports must comply with EU food safety, animal-health and plant-health standards [98]. The agreement explicitly upholds the precautionary principle and preserves the EU’s right to maintain strict maximum residue limits for pesticides and a restrictive approach to GMOs.
Overall, the findings suggest that EMPA will reinforce existing comparative advantages resulting from the production potential—favouring expansion of land-intensive sectors in Mercosur while sustaining the EU’s strengths in capital- and knowledge-intensive production. This helps clarify where competitive pressures are most likely to arise and provides a clearer basis for designing targeted safeguard and support measures.

6. Summary and Conclusions

This study provides an updated and comprehensive comparison of agricultural production potential in the EU and Mercosur. Some conclusions were formulated. First, the Mercosur countries possess nearly 2.5 times more agricultural land than the EU, but a comparable area of arable land. Almost three-fourths of agricultural land in Mercosur consists of permanent grassland (compared to less than one-third in the EU). The high share of pastures may favour the development of livestock production, particularly beef and dairy production—sectors that are highly sensitive from the EU. Permanent grassland can also be converted into arable land and used for the cultivation of crops such as sugarcane and soybeans, for which demand in the EU may increase after the EMPA implementation.
Second, agriculture in the Mercosur countries is predominantly extensive in nature and highly land-intensive. The average agricultural area per worker is almost twice as large as in the EU. At the same time, the value of net capital per hectare in Mercosur is very low—only one-tenth of the EU level. This indicates limited mechanisation and lower technological advancement. In contrast, EU agriculture is highly capital-intensive. Net fixed assets per worker are several times higher than in Mercosur. Land and labour productivity are also much higher. Value added per hectare is more than four times greater, and value added per worker is more than twice as high. These differences reflect the widespread use of modern technologies and capital-intensive production systems in the EU.
Third, the differences identified in the study imply that, once the EMPA enters into force, the EU may experience increased competitive pressure in sensitive sectors such as beef, poultry, sugar, and ethanol. However, the mechanisms provided for in the agreement (transitional periods, tariff-rate quotas), together with the additional safeguard clause, are intended to prevent an uncontrolled inflow of these products into the EU. Some benefits, in turn, may be expected in the export of dairy products, processed goods, and products with geographical indications.
Fourth, the study confirms that the asymmetries between the EU and Mercosur stem not only from differences in resource endowments but also from their dynamics and stability. Mercosur demonstrates stronger growth dynamics in key feed crops such as soybeans and maize, while the EU maintains higher and more stable output levels of cereals, oilseeds, and dairy products. Variability measures further reveal that EU crop production is generally more stable, whereas Mercosur’s production, particularly in rapidly expanding segments, is characterised by greater fluctuation. These findings emphasise the complementary nature of agricultural specialisation in both blocs and highlight clear areas where trade integration under the EMPA could generate mutual benefits.
Fifth, the analysis also underscores substantial divergences in production standards, including pesticide use, maximum residue limits, and GMO cultivation, which reinforce cost asymmetries and invite further reflection on sustainability reciprocity mechanisms in EU trade policy. The EU thus applies double standards in the area of pesticides: on the one hand, the use of many active substances is banned within the EU, while on the other, pesticides containing these substances continue to be produced and exported. These countries then export to the EU products manufactured using pesticides that are prohibited within the EU.
Moreover, the EMPA has significance that goes beyond trade. Equally important are the geopolitical benefits, which cannot be easily quantified. The agreement may become a tool for deepening interregional cooperation and serves the strategic interests of both blocs amid growing pressure from China and Russia and increasing protectionism in the United States. Particularly relevant in the context of the EU’s energy transition is access to South American rare earth metals.
The study also highlights the need for continuous monitoring of EU agri-food markets after the agreement enters into force, as liberalisation will contribute to increased imports of certain products from Mercosur to the EU. Early identification of emerging imbalances would make it possible to apply the safeguard mechanisms provided for in the agreement, thereby minimising losses for EU agricultural producers.
The main limitation of this study lies in its focus on comparing the two blocs as whole entities—the 27 EU Member States on the one hand and the four Mercosur countries on the other. In reality, the countries within these groupings differ in terms of their agricultural production potential. It would therefore be valuable to conduct more detailed research that takes into account this intra-regional diversity. Such extensions would allow more granular policy analysis and could support more targeted safeguard mechanisms. Also more advanced quantitative methods may be incorporated in future research.

Author Contributions

Conceptualization, I.S. and Ł.A.; methodology, Ł.A., I.S. and O.K.; software, I.S., Ł.A. and O.K.; validation, I.S. and Ł.A.; formal analysis, I.S., Ł.A. and O.K.; investigation, I.S., Ł.A., O.K. and A.Z.; resources, Ł.A., O.K. and A.Z.; data curation, Ł.A., O.K. and A.Z.; writing—original draft preparation, Ł.A., O.K. and A.Z.; writing—review and editing, I.S. and Ł.A.; visualization, Ł.A., O.K. and A.Z.; supervision, I.S. and Ł.A.; project administration, I.S.; funding acquisition, I.S. and Ł.A. All authors have read and agreed to the published version of the manuscript.

Funding

The article processing charge (APC) was funded by the National Support Centre for Agriculture (KOWR) under contract No. CEN.BDG.WP.6515.2.2025.EJ.57.

Institutional Review Board Statement

Not applicable.

Informed Consent Statement

Not applicable.

Data Availability Statement

Data available in a publicly accessible repository that does not issue DOIs Publicly available datasets were analysed in this study. This data can be found here: https://www.fao.org/faostat/en/#data (accessed on 22 September 2025).

Acknowledgments

The study is the result of cooperation between researchers from the Institute of Agricultural and Food Economics—National Research Institute, Warsaw, Poland.

Conflicts of Interest

The authors declare no conflicts of interest.

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Figure 1. Labour and energy costs in selected Mercosur and EU countries. Source: own elaborations based on [78,79].
Figure 1. Labour and energy costs in selected Mercosur and EU countries. Source: own elaborations based on [78,79].
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Figure 2. Pesticide use in 2023, in kg of active substance per ha of agricultural land. Source: own elaborations based on [43].
Figure 2. Pesticide use in 2023, in kg of active substance per ha of agricultural land. Source: own elaborations based on [43].
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Table 1. Indicators relating to agricultural production potential.
Table 1. Indicators relating to agricultural production potential.
Element of Production PotentialDescription
Production resources
and factors
LandUtilised agricultural area (ha)
Area of arable land (ha)
Area of permanent crops (ha)
Area of permanent grassland (ha)
LabourNumber of employed person (by ILO methodology)
(thousand people)
CapitalNet capital stock (USD million)
Relations between
production factors
Land-LabourUtilised agricultural area per employed person
(ha per person)
Land-LabourArable land per employed person (ha per person)
Labour-LandEmployed person per 100 ha UAA
Capital-LabourNet capital stock per employed person
(USD thousand per person)
Capital-LandNet capital stock per UAA (USD thousand per ha)
Prices of production factorsLabour costAverage monthly earnings in US dollar
Energy costDiesel price in USD per liter
Gross value addedValue in USD billion
Share in percent of GDP
ProductivityLand productivityGross value added per UAA (USD thousand per ha)
Labour productivityGross value added per employed person
(USD thousand per person)
Capital productivityGross value added per net capital stock (USD per USD)
Other factors determining quality of the production
potential
Pesticide useTons of active ingredients or kilos of active ingredients
per ha UAA
Maximum residue
limits
mg per kg
Source: own elaborations based on [30,31,49].
Table 2. Agricultural Land Area, in ha million.
Table 2. Agricultural Land Area, in ha million.
MercosurEuropean Union
201820192020202120222023201820192020202120222023
Agricultural Land387.52388.31389.51390.00391.19388.56163.73164.96162.88162.63162.45160.83
Arable Land102.34102.97104.02104.36105.42102.7998.9799.3797.5597.6097.3497.38
Land under
Permanent Crops
8.958.958.968.968.958.9511.9612.0511.8411.8812.1212.12
Permanent Meadows
and Pastures
276.23276.38276.53276.68276.83276.8352.8053.5453.4853.1453.0053.03
Source: own calculations based on [75].
Table 3. Labour and Capital Inputs in Agriculture.
Table 3. Labour and Capital Inputs in Agriculture.
MercosurEuropean Union
201820192020202120222023201820192020202120222023
Employment in Agriculture,
in thousand persons
10,663.010,628.710,276.610,999.210,852.710,441.38963.48762.98582.68333.08237.57966.7
Net Capital Stocks (Agriculture,
Forestry and Fishing),
in USD billion
147.1141.7130.9151.5179.8185.51031.51002.41031.11125.31101.41116.6
Source: own calculations based on [76,77].
Table 4. Relations between Factors of Production in Agriculture.
Table 4. Relations between Factors of Production in Agriculture.
MercosurEuropean Union
201820192020202120222023201820192020202120222023
Number of Employees per 100 ha
of Agricultural Land, persons/100 ha
2.752.742.642.822.772.695.475.315.275.125.074.95
Area of Agricultural Land
per 1 Employed in Agriculture, ha/person
36.3436.5337.9035.4636.0537.2118.2718.8218.9819.5219.7220.19
Net Capital Value per 1 Employed
in Agriculture, thousand USD/person
13.7913.3312.7313.7716.5617.77115.08114.39120.14135.04133.71140.16
Net Capital Value per 1 ha
of Agricultural Land, thousand USD/ha
0.380.360.340.390.460.486.306.086.336.926.786.94
Source: own calculations based on [43].
Table 5. Selected Statistical Indicators Concerning Factors of Production in Agriculture.
Table 5. Selected Statistical Indicators Concerning Factors of Production in Agriculture.
MercosurEuropean Union
MeanCAGRSDCVMeanCAGRSDCV
Agricultural Land389.20.0011.320.34162.9−0.0041.380.85
Arable Land103.70.0011.161.1298.0−0.0030.890.91
Employment in Agriculture10,643.6−0.004263.202.478474.3−0.023365.504.31
Net Capital Stocks (Agriculture, Forestry and Fishing)156.10.04821.7913.961068.10.01652.454.91
Source: own calculations based on [75,76,77].
Table 6. Value Added of Agriculture, Forestry and Fishing.
Table 6. Value Added of Agriculture, Forestry and Fishing.
MercosurEuropean Union
201820192020202120222023201820192020202120222023
Value Added in Agriculture, Forestry
and Fishing, in USD billion
116.36110.30116.59154.39164.04180.88254.50247.74246.45273.79284.76302.93
Share of Value Added (Agriculture,
Forestry and Fishing) in GDP, %
6.186.427.548.277.577.671.581.571.591.561.681.63
Source: own calculations based on [80].
Table 7. Efficiency of Production Factors Use.
Table 7. Efficiency of Production Factors Use.
MercosurEuropean Union
201820192020202120222023201820192020202120222023
Land Productivity (Value Added per Agricultural Land), USD/ha300.3284.1299.3395.9419.3465.51554.41501.91513.11683.61752.91883.5
Labour Productivity (Value Added per 1 Person Employed), USD/person10,912.510,377.511,344.914,036.415,114.917,323.628,393.028,271.928,714.932,856.634,569.138,023.9
Capital Productivity (Value Added per Net Capital Stock)
1 USD/1 USD
0.790.780.891.020.910.970.250.250.240.240.260.27
Source: own calculations based on [43].
Table 8. Livestock, in million heads.
Table 8. Livestock, in million heads.
MercosurEuropean Union
201820192020202120222023201820192020202120222023
Cattle and Buffaloes294.96296.66299.01305.50314.45319.9578.3077.6277.0276.1875.2974.22
Swine/pigs47.9147.1748.0649.4151.3750.37143.52143.15145.91141.68134.41132.86
Sheep39.9841.6041.8440.4440.4640.6663.2462.4761.4660.5159.0158.16
Goats15.6616.4116.9216.3016.4717.1512.1912.1311.9811.7511.2610.71
Poultry Birds1650.461662.431683.051730.381774.901782.601567.231580.911604.801562.751563.651562.00
Source: own calculations based on [81].
Table 9. Production of Basic Agricultural Products, in million tons.
Table 9. Production of Basic Agricultural Products, in million tons.
MercosurEuropean Union
201820192020202120222023201820192020202120222023
Cereals183.45216.51223.24210.05238.63228.81274.54299.87286.29298.19271.42272.17
Wheat25.1527.1428.2027.3934.7522.92124.51139.43126.42138.18134.30133.48
Barley5.784.834.615.386.725.9750.1555.5954.6752.0951.9947.38
Maize (corn)131.48164.38168.98153.66174.28178.1269.0070.1067.3173.0252.9761.04
Rye0.090.100.230.150.240.196.148.378.947.967.467.56
Rape or colza seed0.170.220.270.360.540.8717.9215.2916.5616.9519.4219.59
Soya Beans168.08180.93183.62193.26173.15188.032.912.812.682.712.512.86
Sunflower Seed3.724.002.973.364.135.1510.0010.289.0310.399.339.83
Raw cane or beet sugar (centrifugal only)30.2930.0040.8437.8742.03N/A18.1617.2416.0117.5216.11N/A
Beef and Buffalo Meat (primary)14.0514.4014.1713.8314.6315.517.096.996.936.906.746.48
Meat of pig with the bone, fresh or chilled51.8653.9457.1461.3965.0466.10250.92247.51247.31251.91239.03221.92
Poultry Meat15.9516.0916.3616.9917.2117.4513.0813.3013.4513.0612.8713.16
Milk (total)48.7549.6150.9351.3150.6451.06156.74158.28160.29159.77160.00160.84
Source: own calculations based on [81].
Table 10. Selected Statistical Indicators Concerning Production of Selected Agricultural Products.
Table 10. Selected Statistical Indicators Concerning Production of Selected Agricultural Products.
MercosurEuropean Union
MeanCAGRSDCVMeanCAGRSDCV
Cereals216.80.04519.088.80283.7−0.00213.014.58
Wheat27.6−0.0183.9914.46132.70.0146.084.58
Barley5.50.0060.7814.0352.0−0.0112.995.76
Maize (corn)161.80.06317.1210.5865.6−0.0247.3511.21
Rye0.20.1610.0638.457.70.0420.9512.34
Rape or colza seed0.40.3860.2664.7817.60.0181.699.57
Soya Beans181.20.0239.335.152.7−0.0030.155.28
Sunflower Seed3.90.0670.7519.299.8−0.0030.545.46
Raw cane or beet sugar (centrifugal only)36.20.0855.7415.8517.0−0.0300.935.46
Beef and Buffalo Meat (primary)14.40.0200.604.136.9−0.0180.223.16
Meat of pig with the bone, fresh or chilled59.20.0505.879.91243.1−0.02411.324.66
Poultry Meat16.70.0180.633.7513.20.0010.201.54
Milk (total)50.40.0090.991.97159.30.0051.530.96
Source: own calculations based on [81].
Table 11. Examples of maximum residue limits in the EU and Mercosur (mg/kg).
Table 11. Examples of maximum residue limits in the EU and Mercosur (mg/kg).
PesticideProductEUBrazil
GlyphosateCoffee0.11 (×10)
GlyphosateSugar cane0.11 (×10)
GlyphosateDrinking water0.1500 (×5000)
ChlorothalonilSoya0.010.5 (×50)
CarbarylApples0.012 (×200)
AtrazineCorn0.050.25 (×5)
AcephateLemon0.010.2 (×20)
MalathioneBean0.028 (×400)
Source: own elaborations based on [25].
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Ambroziak, Ł.; Szczepaniak, I.; Kiforenko, O.; Zalewski, A. Comparison of the Agricultural Production Potential of Mercosur Countries and the EU in the Context of the EU–Mercosur Partnership Agreement. Sustainability 2025, 17, 11135. https://doi.org/10.3390/su172411135

AMA Style

Ambroziak Ł, Szczepaniak I, Kiforenko O, Zalewski A. Comparison of the Agricultural Production Potential of Mercosur Countries and the EU in the Context of the EU–Mercosur Partnership Agreement. Sustainability. 2025; 17(24):11135. https://doi.org/10.3390/su172411135

Chicago/Turabian Style

Ambroziak, Łukasz, Iwona Szczepaniak, Oksana Kiforenko, and Arkadiusz Zalewski. 2025. "Comparison of the Agricultural Production Potential of Mercosur Countries and the EU in the Context of the EU–Mercosur Partnership Agreement" Sustainability 17, no. 24: 11135. https://doi.org/10.3390/su172411135

APA Style

Ambroziak, Ł., Szczepaniak, I., Kiforenko, O., & Zalewski, A. (2025). Comparison of the Agricultural Production Potential of Mercosur Countries and the EU in the Context of the EU–Mercosur Partnership Agreement. Sustainability, 17(24), 11135. https://doi.org/10.3390/su172411135

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