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How Does China’s OFDI Motivations Affect the Bilateral GVC Relationship?

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18 June 2025

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20 June 2025

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Abstract
The purpose of this paper is to analyse how China’s outward foreign direct investment (OFDI) driven by different motivations affects the bilateral global value chain (GVC) relationship between the home country (China) and host countries, evaluating both bilateral GVC trade value and relative GVC positions. Employing the OECD Trade in Value Added (TiVA) database combined with Chinese listed firm data, we find: Firstly, strategic asset-seeking OFDI strengthens the GVC relationship between China and host countries while enhancing China’s GVC position relative to host countries. Secondly, efficiency-seeking OFDI increases the domestic value exported from host countries to China but does not improve China’s relative GVC position. Thirdly, natural resource-seeking OFDI enhances bilateral GVC trade volumes but has no significant impact on the relative GVC positions of China and host countries. These effects exhibit heterogeneity across industries with different factor intensity, host countries at different income levels, and between countries participating in the Belt and Road Initiative (BRI) and those that do not.
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1. Introduction

This paper investigates how China’s outward foreign direct investment (OFDI), categorized by investment motivations, affects bilateral global value chain (GVC) relationship between China and host countries. Since 2003, China’s OFDI has grown rapidly, ranking among the top three global OFDI sources by 2023. According to the MOC et al. [1], China’s OFDI has accounted for over 10% of the global OFDI share for eight consecutive years, spanning 18 industries, including manufacturing and services.
China’s OFDI has strengthened economic cooperation and deepened industrial ties between China and other countries. However, China has primarily occupied the low-tech manufacturing segment of the GVC, serving as a hub in regional value chains due to its labour cost advantage [2]. To move beyond this position, both Chinese enterprises and the government have implemented policies aimed at upgrading industrial capabilities, with notable success [3,4].
Against the background of “slow globalization” [5], China’s OFDI plays a crucial role in strengthening international cooperation with host countries’ industrial and supply chains, while also promoting high-level opening-up and high-quality economic development. One of the key motivations for China’s OFDI is to acquire diverse resources from host countries. Employing the OECD Trade in Value Added (TiVA) database combined with Chinese listed firm data, this paper examines whether different types of resource-seeking OFDI from China have different effects on (1) the promotion of GVC trade relations and (2) the relative GVC positions between China and host countries. Additionally, the study also examines the heterogeneity of these effects across different categories of host countries and factor-intensity industries.
The rest of the paper is structured as follows: Section II reviews the relevant literature. Section III develops the theoretical framework. Section IV presents the econometric model and data description, while Section V discusses the benchmark regression results, robustness checks, and heterogeneity analysis. Finally, Section VI concludes the study.

2. Literature Review

This study engages with two key branches of literature: the international business research on motivations behind China’s OFDI, and the international trade literature examining OFDI’s effects on GVCs. This section reviews the relevant findings from both fields of research.

2.1. The Motivations for China’s OFDI

The international business literature classifies OFDI into four types based on motivations: market-seeking OFDI, efficiency-seeking OFDI, strategic asset-seeking OFDI, and natural resource-seeking OFDI [6,7,8]. Extensive research has examined the motivations and location strategies of China’s OFDI within this framework since the seminal work by Buckley et al. [9].
Early studies identified natural resource-seeking as the primary driver of China’s OFDI [9,10,11]. Recent research reveals that this motivation persists regardless of institutional distance [12], geographic distance, economic distance, or information distance [13] between China and host countries. Moreover, it remains unaffected by the Belt and Road Initiative [14], host countries’ financial institutions, or financial crises [15]. Although market-seeking motivation is unambiguous [9,10,16,17,18], its influence appears relatively weak [19].
However, the literature exhibits divergent views on the existence of strategic asset-seeking and efficiency-seeking OFDI from China. The pioneers of China’s OFDI research generally denied the attractiveness of host countries’ strategic assets for Chinese investors, e.g., Buckley et al. [9], Zhang et al. [20], Wang et al. [21], Wang et al. [22] and Hong et al. [23]. Further studies identified that the appeal of strategic assets in host countries was influenced by factors such as investor ownership [24], entry mode [25], and the technological capabilities of enterprises and industries [26]. Recent empirical analyses increasingly support the view that strategic asset-seeking has become a significant motivation for China’s OFDI. Ramasamy and Yeung [18] fine that Chinese OFDI in Eastern and Central Europe targets both market size and strategic assets, with private enterprises showing particular preference for strategic asset acquisition [27]. Liang et al. [28] further examine the heterogeneity in strategic asset-seeking investment patterns across different industries and technological levels.
The extent to which China’s OFDI is efficiency-seeking remains a subject of debate. Dunning and Lundan [8] define efficiency-seeking investment as the pursuit of lower factor costs, as well as scale and scope economy in host countries. While researchers often interpret “seeking lower factor costs” as seeking lower labour costs, findings on this matter vary. For instance, Buckley et al. [9] find that China’s OFDI did not prioritize labour cost advantages. Conversely, Cheung and Qian [10] and Ma et al. [29] argue that the appeal of labour cost advantages depends on the characteristics of host countries and industries. In contrast, conclusions are more consistent regarding scale and scope economy-seeking motives. Lu, Liu and Wang [26] as well as Ma et al. [29] prove that the rivalry and business environments of host countries were significant attractions for China’s OFDI. Similarly, Zhao et al. [30] identify that efficiency-seeking in China’s banking sector is primarily driven by lower credit risk, higher profitability, and reduced market rivalry rather than labour costs.

2.2. The Effects of OFDI on GVC Trade

Seminal work by Koopman et al. [31], Koopman et al. [32] and Wang et al. [33] laid the theoretical groundwork for analysing GVC dynamics. Building on these works, subsequent literature has investigated how multinational enterprises (MNEs) shape GVC trade through OFDI. Firstly, empirical studies demonstrate that OFDI promotes a home country’s GVC participation [34,35]. Wang and Chen [35] attribute this effect to OFDI-driven increases in host-country demand for home-produced intermediate goods. Secondly, OFDI contributes to GVC upgrading via three primary mechanisms: industrial rationalization, technological advancement, and trade network expansion [36]. These channels enable home countries to reposition themselves into higher-value-added segments of GVCs, thereby improving their competitive position.
The GVC trade promotion effects of OFDI exhibit significant cross-country heterogeneity. For developed economies, OFDI strengthens GVC linkages with host countries by capitalizing on technological advantages [36], particularly via forward linkages in high-tech industries [37]. This contributes an upward trajectory in the home country’s GVC positioning [36]. In contrast, the impact of OFDI from developing countries on home-country GVC trade remains contested. While Li, Zhou and Hou [36] argue that developing economies can improve their GVC participation and positioning by late-mover advantages and technology spillovers from advanced host countries, others suggest that such effects may be weak due to their comparative advantage in low-value-added GVC segments and lower embeddedness in global production networks [38,39]. Notwithstanding these challenges, firms from developing nations—particularly emerging economies—increasingly view OFDI as a strategic tool for international expansion and value chain control, positioning it as a critical driver of future growth [40,41].
The existing literature extensively examines the effects of China’s OFDI on both host countries’ and home country’s GVC participation. Empirical studies demonstrate that China’s OFDI significantly enhances host countries’ GVC participation [42,43]. Moreover, the impact on host countries’ GVC positions is moderated by several factors, including infrastructure quality, institutional development [43], factor endowments, business environment, and R&D capabilities [42]. Simultaneously, China’s OFDI reinforces GVC linkages between home and host countries by facilitating technology and knowledge flows [44], ultimately improving China’s relative GVC position [45]. This effect occurs through multiple channels: technology spillovers, industrial structure upgrading, and export scale expansion [46,47,48].
In summary, the existing literature confirms that OFDI reinforces GVC linkages between home and host countries while promoting GVC participation for both. The empirical evidence reveals different effects by development level: developed countries leverage OFDI to consolidate and improve their GVC positions, whereas developing countries employ it as a strategic tool for international expansion through more active GVC trade participation.
In international business literature, OFDI is typically driven by four key factors: market size, efficiency, strategic assets, and natural resources. Our analysis reveals that strategic assets, efficiency, and natural resources exhibit a more pronounced influence than market size in shaping GVC relations and relative GVC positions between China and host countries. We argue as follows:
The dynamics of value-added creation can be systematically articulated by the Smile Curve framework, a seminal conceptualization of value distribution patterns within GVC. The curve demonstrates that the highest value-added activities occur in the upstream R&D stage (characterized by technology and patents), and in the downstream marketing and after-sales service stage (focused on branding and logistics). Conversely, relatively little value is created in the intermediate production stages involving raw material processing and assembly.
For firms positioned at the bottom of the Smile Curve seeking to upgrade their GVC position, strategic asset-seeking OFDI (targeting technology and brands) or efficiency-seeking OFDI (leveraging existing industrial agglomeration) represents viable pathways. Alternatively, firms may pursue natural resource-seeking OFDI to secure lower-cost inputs from foreign markets. Meanwhile, the market size is difficult to affect the value added of a final or intermediate product and therefore, the market-seeking OFDI has a minimal effect on GVC trade relations.
Our key theoretical contribution lies in demonstrating how different China’s OFDI motivations distinctly shape GVC relations: strategic asset-seeking OFDI facilitates value flow from home to host countries through technology transfer, while efficiency- and natural resource-seeking OFDI promotes reverse value flow through cost reduction. This subtle difference is overlooked in existing literature. Our research on this issue constitutes our contribution to this study.
This paper also extends the existing literature by examining how China’s OFDI affects GVC dynamics across industries with varying factor intensities. Early research on Chinese GVC trade identified significant position differences among industries with distinct factor intensities [49], observable in both manufacturing and service sectors. These findings suggest potential heterogeneity in the GVC effects of China’s OFDI across different industries. Recent studies have explored heterogeneity in the GVC effects of China’s OFDI along several dimensions, including host country development levels [38,39], geographic location [44], technology [35], the home country’s international economics strategy [45], and industrial structure [42]. However, existing research has overlooked a critical aspect: the OFDI of industries with varying factor intensities seeks divergent resources in host countries, and thus, OFDI with distinct motivations differentially affects bilateral GVC trade relationships. Our work addresses this gap in the literature and thereby makes another contribution.

3. Hypothesis Development

3.1. Strategic Asset-Seeking OFDI and Bilateral GVC Trade

China’s strategic asset-seeking OFDI affects bilateral GVC trade relation through two primary mechanisms. First, developed host countries typically possess superior technological capabilities and R&D infrastructure, enabling the production of higher-quality intermediate goods. Through strategic asset-seeking OFDI in these markets, Chinese firms gain access to these advanced inputs. Furthermore, Xu and Li [50] prove that such investments generate learning and linkage effects that enhance the quality of imported goods. This mechanism increases value-added exports from host countries to China.
Second, strategic asset-seeking OFDI facilitates reverse technology spillovers that strengthen China’s domestic innovation capacity. As Mao and Xu [51] document, these investments enhance the home-country enterprises’ innovation capabilities. Subsequent research by Du et al. [52] confirms their positive impact on domestic R&D performance, while simultaneously upgrading export product quality through increased production complexity. This mechanism increases value-added exports from China to host countries. Therefore, we propose:
Hypothesis 1: 
China’s strategic asset-seeking OFDI increases bilateral value-added trade flows with host countries and improves China’s relative GVC position.

3.2. Efficiency-Seeking OFDI and Bilateral GVC Trade

Efficiency-seeking OFDI aims to access lower-cost factors of production—particularly labour—as well as the scale and scope economies of host countries [8]. While prior research has extensively examined the former [9,53], this study focuses on how the pursuit of scale and scope economies influences bilateral GVC trade between China and its host countries.
Liu et al. [54] find that external economies of scale and scope, stemming from industrial agglomeration, attract significant OFDI from China. Within a more developed specialized production networks in the host country, firms experience higher productivity and innovation levels, reduced production costs, and consequently, increased marginal returns. From a GVC trade perspective, this implies that foreign investors capture greater local value added due to the host country’s higher industrial agglomeration. As a result, the host country’s value embedded in the home country’s exports increases.
Conversely, if other conditions remain unchanged, the host country’s agglomeration does not necessarily affect the home country’s value-added exports. Due to this effect, the industrial cluster level of the host country may not improve China’s GVC position. Thus, we propose the following hypothesis:
Hypothesis 2: 
China’s efficiency-seeking OFDI increases value-added exports from the host country to the home country. However, its effect on value-added exports from the home country to the host country—and on the home country’s GVC position relative to the host—remains indeterminate.

3.3. Natural Resource-Seeking OFDI and Bilateral GVC Trade

As a country with high demand for natural resources, nature resource-seeking has long been a primary motivation for China’s OFDI, supported by government policies [9,55]. This is particularly evident in China’s OFDI flows to developing countries. These investments have boosted natural resource exports from host countries to China, thereby increased the host country’s value-added embedded in China’s exports. Simultaneously, capital goods (e.g., production facilities) and related intermediate goods are exported to host countries [56], implying that China also exports domestic value-added to host economies.
However, the associated value-added from host countries tends to be utilized in China’s production processes rather than being integrated into global production networks, as the primary objective of China’s natural resource-seeking OFDI is to alleviate domestic resource scarcity. Consequently, China’s GVC position relative to host countries is unlikely to improve through such OFDI and may even decline due to rising value-added imports from host economies. This leads us to propose Hypothesis 3:
Hypothesis 3: 
China’s natural resource-seeking OFDI increases both value-added exports and imports between China and host countries. However, it does not enhance China’s GVC position relative to the host country and may instead weaken it.

4. Model and Variables

4.1. Variables and Data Description

4.1.1. Dependent Variables

We examine the bilateral GVC relationship between China and its partner countries along two dimensions: bilateral GVC trade value and relative GVC position. The bilateral trade value is measured by domestic value-added exports (dvaijt) and foreign value-added imports (fvijt). The former (dvaijt) refers to the value-added originating from China and absorbed by partner country j in industry i in year t and the latter (fvijt) refers to the value-added originating from partner country j and embedded in China’s exports in industry i in year t. Following Koopman et al. [31], we calculate the relative GVC position between China and partner country j in industry i and year t as:
𝐺𝑉𝐶_𝑃𝑜𝑠𝑖𝑠𝑡𝑖𝑜𝑛 i j t = ln 1 + I V i j t E i j t l n ( 1 + F V i j t E i j t )
where IVijt refers to the indirect value-added exported from China to partner j and then re-exported to third countries by j in industry i in year t. FVijt refers to foreign value-added imported from partner j and embedded in China’s exports in industry i in year t. Eijt is the total exports from China to partner j in industry i in year t. In this equation, a higher value indicates China’s upstream specialization relative to partner country j. All variables are obtained from the OECD-TiVA (2022) database.

4.1.2. Independent Variables

(1) China’s OFDI in host country-industry level (ofdi). We examine how China’s OFDI affects GVC trade relations between China and host countries. Existing public databases, such as the China Commerce Yearbook and Statistical Bulletin of China’s Outward Foreign Direct Investment, are insufficient for this analysis as they only provide OFDI data at either the country or industry level, but not both simultaneously. To address this limitation, we follow the approach of Ma and Teng [57] in processing data from the China Global Investment Tracker. We aggregate stock OFDI data at the country-industry level using the Overseas Direct Investment Database (ODI) from CSMAR1. The ODI database comprehensively provides OFDI activities data of China’s listed firms since 1999, including capital stock, invested industries, investment years, overseas subsidiaries and subsidiary registration addresses. This approach allows us to construct a more granular dataset for analysing OFDI impacts on GVC relations.
Another methodological challenge we address is the inconsistency in industry classification systems. ODI classifies Chinese listed companies by industry according to GB/T 4757-2111, while the OECD-TiVA database uses ISIC Rev.4 for industry classification. To reconcile these classification schemes, we utilize two conversion tables from GB/T 4754-2017: (1) the Comparison of New and Old Categories of Industrial Classification for National Economic Activities, and (2) the Comparison of Industrial Classification for National Economic Activities and International Standard Industrial Classification of All Economic Activities to merge the two databases. These standardized comparison tables enable systematic mapping between the two classification systems.
(2) Patent applications of residents (pat). The seminal work of Buckley et al. [9] established that seeking human capital and knowledge capital - as reflected in residents’ patent applications - constitutes a primary motivation for China’s OFDI. Recent research on China’s GVC position has further demonstrated that innovation performance, proxied by patent activity, enhances the GVC positioning of Chinese enterprises [62]. Building on this established literature, we employ resident patent applications as our proxy for host countries’ strategic assets, with data sourced from the World Development Indicators (WDI) database.
(3) Specialization (RCA). Following standard practice in the literature, we employ specialization patterns as a proxy for host countries’ productive efficiency. The location quotient serves as the standard measure of national specialization, which can be constructed using output, value-added, or employment data. Given our focus on investment and trade relationships between China and partner countries, we calculate the location quotient using domestic value-added exports – specifically, we construct the revealed comparative advantage (RCA) index based on value-added. The RCA for industry i in country j at year t is specified as:
R C A i j t = d v i j t i = 1 N d v i j t d v i t d v t
where the d v a i j t is the domestic added value export of industry i in country j in year t, d v i t represents the total domestic value-added export worldwide in industry i in year t, and the d v t is the total domestic value-added export worldwide in year t for all the industries.
(4) Natural Resource Endowment (nat). Two variables are commonly employed as proxies for natural resource endowment in the literature: the ratio of natural resource rents to GDP, and the ratio of primary natural resource exports to total merchandise exports. However, the latter measure may be distorted by entrepôt trade effects. Therefore, we adopt the first approach, specifically utilizing the ratio of aggregate rents from four key natural resources (petroleum, coal, natural gas, and minerals) to GDP as our measure of natural resource endowment. The data on natural resource rents are obtained from the WDI database.

4.1.3. Control Variables

(1) GDP per capita (gdpca). Following standard trade theory, we employ GDP per capita of the host country as a proxy for market size, as larger markets typically exhibit greater trade.
(2) Consumer price index (cpi). To account for inflationary effects on trade flows, we incorporate the consumer price index (cpi) of the host country as a control variable, consistent with established macroeconomic trade models.
(3) Trade openness (open). A host country’s trade openness, measured as the ratio of total trade (imports plus exports) to GDP, is included to control for its integration into global value chains.
(4) Chinese industry size (k). To capture scale economies in Chinese industries, we measure industry size using capital per capita. All capital stock data and labour size data are sourced from the China Industry Statistical Yearbook, China Labour Statistical Yearbook and the CSMAR Database. Net fixed assets data is sourced from the China Industry Statistical Yearbook and is deflated using investment price indices. Otherwise, we estimate it via the perpetual inventory method, applying a 9.6% depreciation rate.
Table 1 presents the definitions and data sources for all variables employed in our analysis.

4.2. The Model

To examine the hypothesized relationships, we estimate the following econometric model:
l n y i j t = β 0 + β 1 l n o f d i i j t + β 2 l n p a t j t + β 3 l n p a t j t × l n o f d i i j t + β 4 R C A i j t + β 5 R C A i j t × l n o f d i i j t + β 6 n a t j t + β 7 n a t j t × l n o f d i i j t + β 8 l n g d p c a j t + β 9 c p i j t + β 10 l n o p e n j t + β 11 l n k t + α i + γ j + δ t + ε i j t
where yijt represents the dependent variables (dva, fv, or post) in separate model specifications. Subscripts i, j and t denote industry, country, and year, respectively. Continuous variables (e.g., OFDI, patents, GDP) are log-transformed to interpret coefficients as elasticities and reduce skewness. Ratio-based variables (RCA, nat, cpi) remain in levels to retain their intuitive percentage or index interpretation. The model includes country fixed effects (αi), industry fixed effects (γi), and year fixed effects (δt). Key interaction terms examine the interaction effect between: OFDI and host-country’s innovation capacity (lnpatjt×lnofdiijt), OFDI and host-country’s specialization (RCAijt×lnofdiijt) and OFDI and natural resource endowment (natjt×lnofdiijt). There parameters β3, β5, and β7 capture our primary effects of interest.
To address potential endogeneity (e.g., reverse causality between OFDI and GVC outcomes), we conduct robustness checks using system GMM estimators. We also control for the country-year-industry and country-industry fixed effect in the benchmark regression.

5. Results

5.1. Benchmark Regression

After the conversion of industry codes and data merging, we construct a three-dimensional country-industry-year panel covering OFDI data for 62 countries across 26 industries, along with China-host country GVC trade data from 1999 to 2018. Table 2 reports the benchmark estimation results based on Model (1).
In Table 2, columns (1)-(2), (3)- (4), and (5)-(6) present the regression results using lndvaijt, lnfvijt, and postijt as the dependent variables, respectively. The coefficients of our key independent variables remain consistent across different fixed effects specifications, indicating robust findings.
In columns (1)-(4), the coefficients of lnofdi are significantly negative, suggesting that China’s OFDI exerts a substitution effect on both domestic value-added exports and indirect exports of foreign value-added during the sample period. Meanwhile, by leveraging host countries’ technological advantages, China’s OFDI enhances the home country’s technological level, leading to higher domestic value-added exports. Additionally, it facilitates the import of higher-quality intermediate goods from host countries, increasing the embedded foreign value-added in China’s exports. Consequently, the coefficients of lnpatjt×lnofdiijt are significantly positive in columns (1)-(4). Furthermore, the significantly positive coefficients in columns (5)-(6) demonstrate that strategic asset-seeking OFDI strengthens China’s GVC position relative to host countries. These findings support Hypothesis 1.
We also examine whether China’s efficiency-seeking OFDI affects the GVC relationship between China and host countries. All coefficients of RCA in Table 2 are positive, indicating that host countries’ specialization significantly strengthens GVC linkages between countries and enhances China’s GVC position relative to host countries. The statistically insignificant coefficients of the interaction term RCAijt×lnofdiijt in columns (1) - (2) and (5)-(6) suggest that efficiency-seeking OFDI does not significantly promote domestic value-added exports or contribute to value chain upgrading. However, OFDI facilitates Chinese firms’ integration into local production and R&D networks, enabling imports of higher-quality intermediate goods. As a result, more host countries’ value-added is embedded in China’s exports, as evidenced by the significant coefficients in columns (3)-(4). These findings support our Hypothesis 2.
We also analyse the interaction effect between China’s OFDI and host countries’ natural resource endowments. The significantly positive coefficients of the interaction terms in columns (1)-(4) indicate that China’s OFDI strengthens GVC linkages between the home and host countries by utilizing the host countries’ natural resources. However, China’s GVC position relative to host countries appears unaffected by natural resource factors for two key reasons: First, natural resources typically occupy lower value chain positions in the value chain, as they primarily serve as raw material inputs. Second, most imported natural resources are used to bridge domestic supply-demand gaps [63] rather than for export purposes. These findings support Hypothesis 3.

5.2. Robustness Tests

5.2.1. Alternative Independent Variables

To test the robustness of our benchmark regression, we employ alternative measures for the key independent variables. First, we substitute the patent counts with the ratio of R&D expenditure to GDP (rdexp) as a proxy for the host countries’ strategic assets. This comprehensive measure captures all research expenditures by governments, enterprises, and institutions across different R&D levels, effectively representing the host countries’ research capabilities. Second, we replace the RCA with a value-added-based location quotient (loc_add) to measure the host countries’ specialization. The location quotient is defined as:
𝑙𝑜𝑐_𝑎𝑑𝑑 i j t = v a l i j t j = 1 N v a l i j t v a l i t v a l t
where v a l i j t represents the value added of industry i in country j in year t, v a l i t denotes the global value added in industry i in year t, and valt is the total global value added across all industries at year t.
Third, we use the ratio of fuel exports to total merchandise exports (fuel) as an alternative proxy for natural resource endowments, replacing the natural resource rents.
Table 3 presents the regression results using these alternative measures. The coefficients of our key variables remain largely consistent with those in Table 2, confirming the robustness of our benchmark results and supporting all hypotheses. After controlling for country-industry and/or country-year-industry fixed effects, we find that China’s OFDI enhances domestic value-added exports to host countries and host countries’ value-added embedded in China’s exports by leveraging strategic assets of host countries, as evidenced by the significantly positive coefficient of lnofdi×rdexp in column (2)-(4) of Table 3. The interaction effect of China’s OFDI and strategic asset also improve China’s position relative to host countries, as reported in column (5) and (6).
Our results reveals that China’s efficiency-seeking OFDI increases host countries’ value-added embedded in China’s exports while having no significant effect on China’s value-added exports to host countries, even when specialization is measured by value-added. This is shown by the insignificant coefficients of lnofdi×loc_add in columns (1)-(2) and significantly positive coefficients in columns (3)-(4). Interestingly, efficiency-seeking OFDI appears to lower China’s GVC position relative to host countries, as indicated by the significantly negative coefficients in columns (5)-(6), which nevertheless supports our second hypothesis despite differing from the benchmark results.
Finally, we confirm that resource-seeking OFDI strengthens GVC trade linkages between China and host countries without affecting relative GVC positions, using the fuel export share as our natural resource proxy. These findings collectively validate the robustness of our core results.

5.2.2. Generalized Method of Moments (GMM) Estimation

Potential endogeneity concerns may arise from two sources: first, possible omitted variables in our model specification, and second, potential reverse causality between independent and dependent variables (since closer GVC relationships may attract more Chinese OFDI to partner countries). We employ the system GMM (SYS-GMM) estimation to mitigate the second concern whilst our benchmark regression addresses the first issue through country, industry, and year fixed effects. The results of SYS-GMM estimation are reported in Table 4.
The diagnostic tests confirm the validity of our GMM specification: all models show statistically significant first-order autocorrelation (AR (1) with p < 0.01) but insignificant second-order autocorrelation (AR (2) with p > 0.05) while the Hansen tests for overidentification (p > 0.05) support the appropriateness of our instrument set.
Table 4 shows that the coefficients of our focal interaction terms remain consistent with the benchmark estimates, confirming the robustness of our results after addressing potential endogeneity. Three key findings emerge regarding China’s OFDI effects:
First, the significantly positive coefficients of the lagged interaction terms (L.lnofdi×lnpat and L.nat×lnofdi) in Column 1 indicate that China’s OFDI promotes domestic value-added exports to host countries in the long run through leveraging their strategic assets and natural resources. The contemporaneous terms’ statistical insignificance suggests these effects operate with a temporal lag.
Second, Column 2 demonstrates the interaction effects between China’s OFDI, and host countries strategic assets and nature resources significantly increases host-country value-added embedded in China’s exports in short- and/or long-term run, as the coefficients of interaction terms show.
Third, Column 3 shows that while the contemporaneous interaction effect of OFDI and host-country strategic assets elevates China’s relative GVC position, natural resource endowments exhibit no significant influence.
Regarding specialization effects, the predominantly negative coefficients for RCA×lnofdi (both current and lagged) imply that the interaction effect of China’s OFDI and host countries’ economies of scale and scope may actually suppress China’s domestic value-added. However, the long-run interaction effects between OFDI and specialization increases foreign value-added in China’s exports (Column 2), though without improving China’s relative GVC position (Column 3). This differential pattern implies that while specialization facilitates production fragmentation, it fails to upgrade China’s positional advantage in GVCs.

5.3. Heterogeneity Analysis

5.3.1. Industrial Heterogeneity

Recent industry-level studies prove that the impact of China’s OFDI on manufacturing GVC trade varies significantly across industries. Therefore, it is necessary to examine how different driven OFDI affects GVC trade patterns across various industrial sectors. We classify the 26 industries into two categories: resource- and labour-intensive industries and technology- and capital-intensive industries, following Fan and Huang [49], Han and Qian [64] and Zhao and Jinping [65]. Table 5 summarises the classification details. Table 6 reports the estimation results for two types of industries based on Model (1).
As shown in Table 6, China’s strategic asset-seeking OFDI enhances its relative GVC position vis-à-vis host countries in two industries (see the significant positive coefficients of lnofdi×lnpat in Columns 5 and 6) while increasing the host-country value-added embedded in China’s exports across all industries (Columns 3 and 4). The domestic value-added exports in technology- and capital-intensive industries also benefit from strategic asset-seeking OFDI.
The trade effects of China’s efficiency-seeking OFDI on bilateral GVC linkages are evident in resource- and labour-intensive industries, as demonstrated by the results in Column 3. Notably, natural resource-seeking OFDI promotes domestic value-added exports in capital- and technology-intensive industries (see the significant positive coefficient of lnofdi×lnpat in Column 2) but not in resource- and labour-intensive sectors. This discrepancy may stem from the fact that natural resource-seeking OFDI frequently involves capital goods exports to host countries, thereby stimulating value-added exports in capital- and technology-intensive domestic industries. While natural resource-seeking OFDI elevates host-country value-added embedded in China’s exports across both industry types, it fails to improve China’s relative GVC position.

5.3.2. Country Heterogeneity

  • Country Heterogeneity: Different Income Level
Following the classification in the World Economic Situation and Prospects 2022 (WESP 2022) [66], we divide our country sample into two groups: high-income countries and other countries (comprising upper-middle-income, lower-middle-income, and low-income countries). We examine the heterogeneous effects of China’s OFDI on host countries at different income levels, with the results presented in Table 7. Our analysis reveals three key findings:
First, China’s strategic asset-seeking OFDI exhibits differential impacts—it significantly enhances bilateral GVC linkages only with high-income countries (Columns 1 and 3), while improving China’s relative GVC position across all country groups (Columns 5 and 6).
Second, the GVC trade effects of China’s efficiency-seeking OFDI vary by income level: it increases value-added from high-income host countries embedded in China’s exports (Column 3), while reducing domestic value-added exports to other host countries (Column 2).
Third, China’s natural resource-seeking OFDI strengthens bilateral GVC trade relations with high-income host countries, although it shows no significant impact on relative GVC positioning between the home and host countries.
2.
Country Heterogeneity: Belt and Road Initiative Partner Countries
The Belt and Road Initiative (BRI), launched in 2013, has significantly deepened economic cooperation between China and participating nations. Following the official BRI documentation [67], we classify countries into two groups: BRI participants (those that have signed cooperation agreements with China) and non-participants. This classification enables us to examine the differential effects of China’s OFDI on bilateral GVC trade and relative GVC positions across these country groups.
Table 8 presents our empirical findings. Notably, China’s strategic asset-seeking OFDI strengthens GVC trade linkages with non-BRI countries (Columns 2 and 4) while simultaneously enhancing China’s relative GVC position vis-à-vis this group (Column 6). In contrast, for BRI partner countries, such OFDI increases domestic value-added exports from China (Column 1) but shows no significant effect on either host-country value-added embedded in Chinese exports (Column 3) or China’s relative GVC position (Column 5).
Our analysis reveals distinct patterns regarding efficiency-seeking OFDI effects. As shown in Columns 1, 3, and 4, China’s efficiency-seeking OFDI simultaneously: (1) increases domestic value-added exports to BRI host countries, and (2) enhances non-BRI host countries’ value-added embedded in China’s exports while (3) reducing BRI host countries’ value-added in Chinese exports. However, the results in Columns 5 and 6 indicate that efficiency-seeking OFDI does not significantly improve China’s relative GVC position with either country group.
The nature resource-seeking OFDI analysis reveals further insights. Column 1 shows that China’s OFDI toward nature resource of BRI countries is accompanied with significant exports of Chinese capital goods and other manufacture goods, thereby boosting China’s domestic value-added exports. We didn’t find a similar impact for non-BRI countries. Meanwhile, China’s nature resource-seeking OFDI toward non_BRI countries yields to larger value of host country (see column 4) and reduces China’s relative position vis-à-vis this group (as shown in column 6)

6. Conclusions

This paper examines how China’s OFDI, driven by distinct motivations, affects bilateral GVC relations with host countries through two dimensions: (1) GVC trade value and (2) relative GVC positioning. Our empirical analysis reveals that China’s OFDI generally substitutes for GVC trade, as evidenced by statistically insignificant or significantly negative coefficients for lnofdi across both the full sample and most subsamples. These results suggest that OFDI not motivated by strategic asset-seeking, efficiency-seeking, or natural resource-seeking objectives lacks trade-creating effects and may instead exhibit trade-substituting characteristics.
Our findings demonstrate that China’s strategic asset-seeking OFDI significantly strengthens bilateral GVC trade relations while simultaneously improving China’s relative GVC position vis-à-vis host countries. The analysis reveals, however, two important limitations: firstly, this type of OFDI does not significantly enhance China’s domestic value-added exports to middle- and low-income host countries; secondly, it shows no measurable impact on exports from China’s resource- and labour-intensive industries. Furthermore, we find no statistically significant effect on China’s relative GVC position in these specific contexts.
Our analysis reveals that the interaction effect of host countries’ specialization and China’s OFDI significantly increases the host-country value-added embedded in China’s exports. This effect is particularly pronounced for three specific groups: resource- and labour-intensive industries, high-income countries, and non- BRI partner countries. However, we find no corresponding increase in China’s domestic value-added exports to these host countries. On the contrary, our results demonstrate a significant reduction in value-added exports to middle- and low-income host countries. Consequently, efficiency-seeking OFDI appears ineffective in improving—and may actually weaken—China’s relative position in GVCs.
Our findings indicate that China’s natural resource-seeking OFDI significantly enhances bilateral GVC trade flows between China and its host countries. This effect is particularly pronounced in two specific contexts: capital- and technology-intensive industries, and high-income countries. Furthermore, such OFDI increases China’s domestic value-added exports to BRI partner countries. However, the analysis reveals that natural resource-seeking OFDI fails to improve - and may actually weaken - China’s relative GVC position vis-à-vis host countries, particularly in the case for non-BRI countries.

Funding

This research was funded by MOE (Ministry of Education in China) Project of Humanities and Social Sciences (Grant No. 23YJC790201) and Shaanxi Soft Science Research Project (Grant No. 2023-CX-RKX-170).

Notes

1
[1] Most research on China's (OFDI) has focused on either the firm level or country level, with limited attention to industry-level analysis. In firm-level studies, Chinese listed firms have frequently served as research subjects 58. Bai, T.; Chen, S.; Xu, Y. Formal and informal influences of the state on OFDI of hybrid state-owned enterprises in China. International Business Review 2021, 30, S0969593121000718, 59. Deng, Z.; Yan, J.; van Essen, M. Heterogeneity of political connections and outward foreign direct investment. Ibid.2018, 27, 893-903, 60. Liu, H.; Aqsa, M. The impact of OFDI on the performance of Chinese firms along the ‘Belt and Road’. Applied Economics 2020, 52, 1219-1239, 61. Meyer, K.E.; Ding, Y.; Li, J.; Zhang, H. Overcoming distrust: How state-owned enterprises adapt their foreign entries to institutional pressures abroad. Journal of International Business Studies 2014, 45, 1005-1028.. We contend that the OFDI activities of Chinese listed firms can serve as a reliable proxy for China's overall OFDI, and that their aggregated OFDI at the industry level can effectively represent China's OFDI behavior in industry i

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Table 1. Variables definitions and data sources.
Table 1. Variables definitions and data sources.
Category Variable Definition source Unit Remarks
Dependent Variables davijt Domestic value-added exports from China to host country j in industry i in year t OECD-TiVA Million US dollars Deflated using GDP deflator
fvijt Foreign value-added imports from country j embedded in China’s exports in industry i in year t OECD-TiVA
postijt Relative GVC position between China and partner country j in industry i in year t OECD-TiVA and Author’s calculation
Independent Variables ofdiijt China’s OFDI stock in partner country j in industry i in year t CSMAR ODI Database Million US dollars Deflated using GDP deflator
patjt Resident patent applications in host country j in year t WDI
RCAijt The specialization of industry i in host country j in year t calculated
natjt Natural resource endowment (petroleum, coal, natural gas, and mineral rents as % of GDP) in host country j in year t WDI %
Control Variables gdpcajt GDP per capita, host country j in yea t WDI constant 2015 US$
CPIjt CPI, host country j in year t WDI 2010=100
openjt Trade openness (exports + imports)/GDP, host country j in industry i in year t WDI; calculated
kit Capital per capita in industry i in year t of China China Industry Statistical Yearbook, China Labour Statistical Yearbook, CSMAR Database; calculated US$ per capita Fixed capital stock in industry i in year t/ Number of Employed Persons in industry i in year t
Table 2. Benchmark regression.
Table 2. Benchmark regression.
VARIABLES (1) (2) (3) (4) (5) (6)
lndva lnfv post
lnofdi -0.082*** -0.052** -0.090*** -0.064*** -0.015* -0.014
(0.023) (0. 023) (0.013) (0.013) (0.009) (0.009)
lnpat -0.064 -0.049 0.025 -0.023 -0.016 -0.004
(0.066) (0.069 ) (0.034) (0.031) (0.023) (0.025)
lnofdi×lnpat 0.010*** 0.004* 0.009*** 0.005*** 0.002** 0.002*
(0.002) (0.002) (0.001) (0.001) (0.001) (0.001)
RCA 0.148*** 0.151*** 0.132*** 0.129*** 0.119*** 0.120***
(0.015) (0.015) (0.008) (0.008) (0.008) (0.008)
RCA×lnofdi 0.002 0.002 0.006*** 0.006** -0.000 -0.000
(0.004) (0.004) (0.002) (0.002) (0.002) (0.002)
nat 0.019* 0.006 0.045*** 0.023*** -0.005 -0.005
(0.011) (0.011) (0.006) (0.005) (0.005) (0.006)
nat×lnofdi 0.003* 0.004** 0.004*** 0.004*** 0.000 0.001
(0.002) (0.002) (0.001) (0.001) (0.001) (0.001)
Constant -25.094*** -6.070** -10.664*** 2.164 -0.839 0.577
(2.050) (2.420) (1.078) (1.393) (0.638) (0.792)
Control variables Y Y Y Y Y Y
Country fixed effect Y Y Y Y Y Y
Industry fixed effect Y Y Y Y Y Y
Year fixed effect N Y N Y N Y
No. of observations 4,421 4,421 4,526 4,526 4,421 4,421
R-squared 0.837 0.846 0.961 0.965 0.502 0.504
F 111.2 15.14 174.3 46.70 31.21 31.50
Notes: Robust standard errors in parentheses;*** p<0.01, **p<0.05, * p<0.1
Table 3. Robust test: alternative independent variables.
Table 3. Robust test: alternative independent variables.
VARIABLES (1) (2) (3) (4) (5) (6)
lndva lnfv post
lnofdi -0.032** -0.030** -0.064*** -0.072*** -0.001 0.002
(0.014) (0.014) (0.012) (0.011) (0.005) (0.004)
rd_exp 0.142** 0.310*** 0.069 0.107** -0.056*** -0.077***
(0.065) (0.081) (0.046) (0.045) (0.009) (0.007)
lnofdi×rdexp 0.006 0.012** 0.016*** 0.020*** 0.002* 0.003**
(0.004) (0.005) (0.003) (0.004) (0.001) (0.001)
loc_val 0.147*** 0.138*** 0.131*** 0.128*** 0.205*** 0.240***
(0.034) (0.032) (0.014) (0.015) (0.013) (0.016)
lnofdi×loc_val 0.003 0.003 0.014*** 0.014** -0.008* -0.013***
(0.010) (0.010) (0.004) (0.005) (0.004) (0.003)
fuel -0.000 0.016** 0.008** 0.021*** -0.001 0.001
(0.004) (0.006) (0.003) (0.002) (0.001) (0.001)
lnofdi×fuel 0.001** 0.001** 0.001*** 0.001*** 0.000 0.000
(0.000) (0.000) (0.000) (0.000) (0.000) (0.000)
Constant -6.533*** -23.269*** 2.374 -10.594*** -0.574*** -0.962***
(1.413) (1.243) (1.616) (1.171) (0.112) (0.109)
Control variables Y Y Y Y Y Y
Country fixed effect Y Y Y Y N N
Industry fixed effect Y Y Y Y Y N
Year fixed effect Y N Y N Y Y
No. of observations 4,074 4,074 4,172 4,172 4,074 4,074
R-squared 0.844 0.838 0.965 0.962 0.422 0.269
F 28.85 139.8 45.43 131.7 803.0 561.1
Robust standard errors in parentheses, *** p<0.01, ** p<0.05, * p<0.1
Table 4. Robust test: GMM estimation.
Table 4. Robust test: GMM estimation.
VARIABLES (1) (2) (3)
lndva lnfv post
L.Y 0.843*** 0.983*** 0.724***
(0.004) (0.005) (0.092)
lnofdi 0.017*** -0.006 -0.023
(0.005) (0.006) (0.019)
L.lnofdi 0.002 -0.019*** -0.012
(0.004) (0.006) (0.016)
lnpat 0.081*** 0.250*** -0.296
(0.023) (0.042) (0.241)
L.lnpat -0.014 -0.257*** 0.294
(0.023) (0.042) (0.247)
lnofdi×lnpat 0.000 0.001** 0.003*
(0.000) (0.001) (0.002)
L.lnofdi×lnpat 0.001*** 0.001* 0.001
(0.000) (0.001) (0.002)
RCA_part -0.215*** 0.018 0.496***
(0.017) (0.022) (0.098)
L.RCA_part 0.209*** -0.016 -0.466***
(0.016) (0.022) (0.096)
RCA×lnofdi -0.002*** -0.003*** -0.004*
(0.001) (0.001) (0.002)
L.RCA×lnofdi -0.007*** 0.001*** 0.001
(0.001) (0.000) (0.002)
nat -0.043*** 0.010*** 0.026
(0.002) (0.003) (0.032)
L.nat 0.036*** -0.011*** -0.029
(0.002) (0.003) (0.037)
nat×lnofdi -0.000 0.000 -0.001
(0.000) (0.000) (0.001)
L. nat×lnofdi 0.002*** 0.001*** -0.001
(0.000) (0.000) (0.001)
Constant 0.898*** 0.053 0.044
(0.092) (0.065) (0.189)
Control variables Y Y Y
Country fixed effect Y Y Y
Industry fixed effect Y Y Y
Year fixed effect Y Y Y
No. of observations 3,622 3,701 3,622
F 78950 9667 25.29
P value-AR(1) 0.006 0.000 0.003
P value-AR(2) 0.118 0.125 0.353
P value-Hansen 0.964 0.118 0.637
Standard errors in parentheses,*** p<0.01, ** p<0.05, * p<0.1.
Table 5. Classification of industries.
Table 5. Classification of industries.
Resource- and labour-intensive industries Capital- and technology-intensive industries
Primary product industry Manufacturing Service Manufacturing Service
Agriculture, forestry and fishing Food products, beverages and tobacco Construction Coke and refined petroleum products Electricity, gas, water supply, sewerage, waste and remediation services
Mining and quarrying Textile, wearing apparel, leather and related product Wholesale and retail trade; accommodation and food services Chemicals and pharmaceutical products Transportation and storage
Wood and products of wood and cork Accommodation and food services Rubber and plastic products Publishing, audiovisual and broadcasting activities
Paper products and printing Basic metals Telecommunication
Other non-metallic mineral products Fabricated metal products IT and other information services
Other manufacturing; repair and installation of machinery and equipment Computer, electronic and optical products Financial and insurance services
Electrical equipment Real estate and activities
Machinery and equipment, nec Other business sector services
Motor vehicles, trailers and semi-trailers Human health and social work
Other transport equipment Arts, entertainment, recreation and other service activities
Table 6. Industrial heterogeneity.
Table 6. Industrial heterogeneity.
VARIABLES (1) (2) (3) (4) (5) (6)
lndva lnfv post
Resource- and labour-intensive industries Capital- and technology-intensive industries Resource- and labour-intensive industries Capital- and technology-intensive industries Resource- and labour-intensive industries Capital- and technology-intensive industries
lnofdi 0.105** -0.121*** -0.092*** -0.071*** -0.047** -0.009
(0.042) (0.026) (0.020) (0.015) (0.020) (0.006)
lnpat -0.229** 0.015 -0.012 0.005 0.045 -0.005
(0.103) (0.074) (0.060) (0.036) (0.060) (0.016)
lnofdi×lnpat -0.005 0.012*** 0.006*** 0.007*** 0.006*** 0.001**
(0.005) (0.003) (0.002) (0.002) (0.002) (0.001)
RCA -0.201*** 0.260*** 0.095*** 0.135*** 0.193*** 0.080***
(0.049) (0.023) (0.013) (0.011) (0.016) (0.007)
RCA×lnofdi -0.000 0.002 0.020*** 0.001 0.004 -0.001
(0.008) (0.005) (0.004) (0.002) (0.004) (0.001)
nat -0.057*** 0.011 0.020** 0.028*** 0.015 -0.012***
(0.015) (0.012) (0.009) (0.006) (0.011) (0.003)
nat×lnofdi -0.006*** 0.005*** 0.002* 0.003** -0.002 -0.001*
(0.002) (0.002) (0.001) (0.001) (0.002) (0.001)
Constant 0.477 -5.983** 8.415*** 0.515 -0.561 -0.759*
(3.707) (2.735) (2.417) (1.595) (2.001) (0.424)
Control variables Y Y Y Y Y Y
Country fixed effect Y Y Y Y Y Y
Industry fixed effect N Y Y Y Y Y
Year fixed effect Y Y Y Y Y N
No. of observations 1,332 3,085 1,336 3,186 1,332 3,085
R-squared 0.604 0.851 0.957 0.971 0.643 0.488
F 15.80 21.55 18.27 31.85 17.25 278.1
Robust standard errors in parentheses; *** p<0.01, ** p<0.05, * p<0.1
Table 7. Country heterogeneity: different income level.
Table 7. Country heterogeneity: different income level.
VARIABLES (1) (2) (3) (4) (5) (6)
lndva lnfv post
High income countries Other countries High income countries Other countries High income countries Other countries
lnofdi -0.090*** 0.036 -0.025** 0.046 -0.013 -0.049***
(0.026) (0.041) (0.011) (0.031) (0.010) (0.019)
lnpat -0.332*** 0.160*** -0.054 0.087** 0.023 -0.047*
(0.097) (0.061) (0.062) (0.043) (0.037) (0.026)
lnofdi×lnpat 0.010*** -0.006 0.002* -0.007* 0.002* 0.009***
(0.003) (0.006) (0.001) (0.004) (0.001) (0.003)
RCA 0.153*** 0.116*** 0.129*** 0.123*** 0.111*** 0.138***
(0.017) (0.020) (0.006) (0.015) (0.009) (0.018)
RCA×lnofdi 0.000 -0.012* 0.003* 0.004 0.001 -0.008
(0.005) (0.007) (0.002) (0.006) (0.002) (0.005)
nat -0.031** 0.015 0.025*** 0.015** -0.003 -0.012
(0.015) (0.016) (0.009) (0.008) (0.007) (0.009)
nat×lnofdi 0.005** 0.005 0.005*** -0.000 0.000 -0.001
(0.002) (0.003) (0.002) (0.002) (0.001) (0.002)
Constant -28.563*** -1.716 17.380*** -4.417** 0.777 -0.403
(3.345) (2.596) (2.371) (1.727) (1.077) (0.977)
Control variables Y Y Y Y Y Y
Country fixed effect Y Y Y Y Y Y
Industry fixed effect Y Y Y Y Y Y
Year fixed effect N Y Y Y N Y
No. of observations 3,030 1,390 3,113 1,412 3,030 1,390
R-squared 0.852 0.890 0.967 0.970 0.468 0.636
F 70.49 7.984 699.6 21.71 20.79 9.247
Robust standard errors in parentheses; *** p<0.01, ** p<0.05, * p<0.1
Table 8. Country heterogeneity: BRI partner countries versus non-BRI countries.
Table 8. Country heterogeneity: BRI partner countries versus non-BRI countries.
VARIABLES (1) (2) (3) (4) (5) (6)
lndva lnfv post
BRI countries non-BRI countries BRI countries non-BRI countries BRI countries non-BRI countries
lnofdi -0.110** -0.034 -0.008 -0.068*** -0.015 -0.018*
(0.043) (0.027) (0.020) (0.016) (0.017) (0.009)
lnpat 0.023 -0.340*** 0.099*** -0.351*** 0.023 -0.066**
(0.080) (0.101) (0.034) (0.067) (0.032) (0.026)
lnofdi×lnpat 0.009* 0.005** 0.002 0.005*** 0.002 0.002***
(0.005) (0.003) (0.002) (0.002) (0.002) (0.001)
RCA 0.169*** 0.126*** 0.143*** 0.130*** 0.151*** 0.103***
(0.028) (0.014) (0.011) (0.010) (0.014) (0.007)
RCA×lnofdi 0.022*** -0.002 -0.006* 0.007*** -0.009*** 0.002
(0.008) (0.003) (0.004) (0.002) (0.003) (0.001)
nat -0.002 0.014 0.017*** 0.044*** -0.006 -0.000
(0.013) (0.019) (0.006) (0.014) (0.007) (0.007)
nat×lnofdi 0.005** -0.010*** -0.000 0.017*** 0.001 -0.004**
(0.002) (0.004) (0.001) (0.003) (0.001) (0.002)
Constant -5.993* -4.308 -3.396** 10.598*** 1.487 0.574
(3.577) (3.889) (1.699) (2.526) (1.358) (0.788)
Control variables Y Y Y Y Y Y
Country fixed effect Y Y Y Y Y Y
Industry fixed effect Y Y Y Y Y Y
Year fixed effect Y Y Y Y Y Y
No. of observations 2,000 2,421 2,061 2,465 2,000 2,421
R-squared 0.838 0.870 0.975 0.960 0.501 0.570
F 10.53 13.24 28.57 40.00 17.61 83.06
Robust standard errors in parentheses;*** p<0.01, ** p<0.05, * p<0.1
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