Labor Productivity Dynamics in Spain: A Firm-Level Perspective: Spain
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Mr. Nicolas Arregui
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Ms. Yu Shi
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This paper uses firm-level data that covers over 1.2 million Spanish firms during the period of 2003-2019 to provide an updated assessment of the drivers of labor productivity in the Spanish economy, focusing on both TFP and firm investment. The empirical analysis shows significant differences in production constraints in both the capital market and the labor market, across firm size and age. This paper also includes a review of Spain’s ambitious reform commitments under the Recovery, Transformation and Resilience Plan and concludes with recommendations for further action.

Abstract

This paper uses firm-level data that covers over 1.2 million Spanish firms during the period of 2003-2019 to provide an updated assessment of the drivers of labor productivity in the Spanish economy, focusing on both TFP and firm investment. The empirical analysis shows significant differences in production constraints in both the capital market and the labor market, across firm size and age. This paper also includes a review of Spain’s ambitious reform commitments under the Recovery, Transformation and Resilience Plan and concludes with recommendations for further action.

Labor Productivity Dynamics in Spain: A Firm-level Perspective1

A. Introduction

1. Labor productivity has been a long-standing structural challenge in Spain. Productivity performance has been weak across several dimensions: labor productivity levels are significantly lower than in some peer economies, its growth rate has been low and not favored convergence, and differences in output per hour worked across Spanish regions is considerable (IMF, 2018). Moreover, weak labor productivity performance relative to peers holds across sectors, suggesting that cross-cutting drivers are likely to play a more significant role than the productive structure of the economy.

uA001fig01

Labor Productivity

(GDP in const. 2015 prices divided by hours worked)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Eurostat, Haver Analytics, and IMF staff calculations.
uA001fig02

Labor Productivity Growth by Sector 1996–2021

(annual average growth; in percent)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Note: peers include AT, BE, CZ, DE, FR, HR, IT, NL, PT, UK.

2. In the aftermath of the Global Financial Crisis (GFC), labor productivity in Spain exhibited a counter-cyclical pattern driven by the large reduction in employment. The relatively strong productivity growth from 2009 to 2013 was mainly driven by developments in the labor market. The rapid decline in working hours resulted in a faster increase in the capital-labor ratio. Additionally, employment destruction had a bias towards less productive occupation, implying an increase in the average productivity for those who remained occupied. Once labor market conditions normalized, capital deepening2 settled at a lower contribution level (negative in 2014–19) to labor productivity, reflecting the lower rate of capital accumulation since the GFC. The adoption of measures during the pandemic, particularly with the role played by the strengthened furlough scheme (ERTE), resulted in better labor market dynamics than in past crises. On the flip side, labor productivity performed worse in Spain than in other countries.

uA001fig03

Labor Productivity Growth

(annual growth rate, in percent)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Eurostat Haver Analytics and IMF staff calculations.
uA001fig04

Spain Labor Productivity Growth Decomposition

(in percent)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: KLEMs and IMF staff calculations.
uA001fig05

Capital Deepening Growth

(in percent)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: OECD, and IMF staff calculations.

3. Total factor productivity (TFP) has been consistently low and lagging peers for decades. A number of factors have been identified as contributing to the sluggish TFP growth in Spain, including the structural weaknesses in the labor market, such as the high share of temporary workers and the wide use of sector-level collective bargaining agreements (Hospido and Moreno-Galbis, 2015), capital misallocation linking to financial frictions from size-dependent borrowing constraints (Gopinath et al. 2017; García-Santana et al. 2020), product market regulation (Andrews and Cingano, 2014; Bank of Spain, 2015), size-related regulations and policies (Almunia and Lopez Rodriguez, 2018; IMF Country Report, 2018), and weak business innovation (OECD, 2021). Spain, nonetheless, has recently put in place reforms that could have a positive impact on TFP. For example, substantial changes in the regulation of temporary contracts were introduced in December 2021 and early results are showing a decline in the share of temporary workers. Reforms also established incentives for the provision of training to workers and revamped the vocational and training system. Furthermore, Spain’s Recovery, Transformation and Resilience Plan (RTRP) contemplates improvements to active labor market policies.

4. Sustained policy focus on raising productivity will be important to increase living standards, help rebuild fiscal buffers and make growth more inclusive. A previous study by the IMF (IMF, 2015) discussed the determinants of TFP in the aftermath of the GFC and emphasized the importance of product market regulation as well as the size-related tax incentives. Building on this earlier work, this chapter provides an updated assessment of the drivers of labor productivity in recent years, focusing on both TFP and firm investment. The empirical analysis benefits from the rich information in firm financial statements to provide a deep-dive study on differences across firms based on their size and age. Given that firm-level data is available with a significant lag, the analysis of productivity developments during the pandemic is beyond the scope of this chapter. The chapter also includes a review of Spain’s ambitious reform commitments under the recovery plan and concludes with recommendations for further action.

B. Data and Empirical Strategy

Data

5. This chapter uses firm-level data that covers over 1.2 million Spanish firms3 during the period of 2003–2019. The microdata is from the Orbis Bureau Van Dijk (BvD) database, complied by the IMF’s Research Department (Díez et al., 2018). The Orbis BvD database includes all companies that report to the business registry, and thus is considered as well-representing the business dynamics of the Spanish economy (Gopinath et al., 2017). Nevertheless, there could be an underrepresentation of the smaller firms as their self-reported information can be less accurate compared to large firms. These firms are also subject to lighter reporting standards which could result in more missing information. To ensure that business dynamics in our data sample are consistent with census, we select 10 economic sectors for which the database matches well both the sectoral employment and value-added growth from the National Statistical Office since early 2000s. These sectors include manufacturing, construction, wholesale and retail trade, transport, accommodation and food, ICT, professional and technical activities, education, health, entertainment, and other services. They cover about 80 percent of the total value added and 70 percent of total employment in the Spanish economy (see Annex I for details).

Empirical Strategy

6. To understand the factors that are relevant to firm investment, we include standard firm-level variables and other macroeconomic variables of our interest. The empirical model follows the standard specification for firm investment behaviors, which regresses firm-level investment on the above-mentioned variables (Gebauer et al., 2018; Dejuán and Ghirelli, 2018; etc.):

Invit=β0+β1Leveragei,t1+β2log(Fixedassetit)+β3DebtRatioit+β4ROAit+β5SalesGrowthi,t+1+γXit+κsrt

Firm net investment, Invit, is the change in fixed assets normalized by the one-year lagged value of fixed assets. The normalization allows the investment variable to be comparable between large and small firms. The normalized investment rate can also be interpreted as the percent change of firm capital stock. Leverageit and DebtRatioit represent the debt-to-asset ratio and the debt service ratio, respectively, which serve as proxies for firm balance sheet health. ROAit and SalesGrowthit characterize the profits and sales growth, which indicate the performance of each firm. Conceptually, firms with higher leverage ratios and debt service ratios have more stressed balance sheets and find it more difficult to finance their investments. Firms with higher profits or future sales growth, on the contrary, should invest more. Finally, Xit includes other explanatory variables of interests, such as firm size, age, and local product market concentration; Ksrt is sector-region-year fixed effects.4

7. The construction of misallocation and TFP measures also follows the standard approaches in the literature.

  • a. Misallocation. A conventional measure of misallocation is the dispersion of firm-level return to capital, measured as the log marginal revenue product of capital (MRPK) and the return to labor, as measured by the log marginal revenue product of labor (MRPL). The two variables are derived from a growth accounting framework that has been widely used in the literature5 (Hsieh and Klenow, 2009; Hsieh and Song, 2015; Gopinath et al. 2017), which solves each firm’s profit maximization problem6:
    maxpist,kist,listπist=p(yist)yist(1+τistK)(rt+δst)kist(1+τistL)wstlist,(1)
    where yist=Aistkistαlist1α is the production function of firm i. Standard first-order conditions equalize the marginal revenue product of capital (labor) to the cost of the production factor:
    MRPLit=((1α)/μ)(p(yist)yist/list)=(1+τistL)wstMRPKit=(α/μ)(p(yist)yist/kist)=(1+τistK)(rt+δst),

    where τistL,τistK are reduced-form measures of labor and capital market frictions, respectively. A higher τ implies that a firm pays a higher cost for the production factor, and therefore it faces more frictions in the factor market. Note that here we assume sector-specific factor prices, therefore the exercise only analyzes misallocation within each sector, but not across sectors.

  • b. Firm-Level TFP. The estimation of firm-level TFP is conducted by the IMF’s Research Department. Since the Orbis BvD database provides information on material costs for Spanish firms, TFP is then estimated using the method proposed by De Loecker and Warzynski (2012), and also by Ackerberg, Caves, and Frazer (2015), and uses value-added on the left-hand-side.

8. Common explanatory variables for investment, misallocation, and TFP analyses are:

  • a. Local Market Concentration. We define a unique local product market for each pair of NACE 2-digit sector and autonomous communities. For example, all firms conducting manufacturing of machinery and equipment in Madrid are considered as in the same product market. A similar firm operating in Valencia, however, is considered as in a different market. There is a total of [209] local product markets based on this definition. We measure the concentration of each product market using the Herfindahl–Hirschman index (HHI), calculated by squaring the market share of each firm competing in the market and then summing the resulting numbers.

  • b. Firm Size. This chapter adopts two different approaches to identify the size of each firm. The first approach follows the standard definition by relying on the number of employees: firms with 0–9 employees, 10–49 employees, 50–249 employees, and 250 employees or more are considered as micro, small, medium-sized, and large enterprises, respectively. The second approach defines the size of a firm based on its book value of fixed assets. We divide the sample into 4 quartiles and define firms from the lowest to the highest quartiles as micro, small, medium, and large firms.

  • c. Firm Age. The age of a firm is calculated as the number of years since establishment. At establishment, the firm is considered as one year old.

C. Results

Firm-Level Investment

9. While firms generally invested less after the GFC amid a deleveraging process and tighter financial conditions, large firms were disproportionately more affected. Before the GFC, firm net investment rate, which can be also interpreted as the annual percent change of firm capital stock, averaged about 20 to 30 percent. It dropped to negative territory after the crisis and has only recently started to increase again. Besides, firm investment rate is typically positively correlated with firm size (measured by the total value of fixed assets): before the GFC, a 10-percent increase in firm asset value could raise investment rate by about 0.6 percentage points. This difference between large and small firms declined rapidly after the GFC: by 2015, there was almost no difference between the investment rates of large and small firms. Such a change in the size-dependency of firm investment over time turned out to be mainly driven by three financial market and policy variables—real interest rate, total deposits growth, and economic policy uncertainty. Large firms tend to disproportionally lower investment when the real interest rate increases, total deposit growth declines, and economic policy uncertainty rises. This result is consistent with recent findings in the literature that large companies are more sensitive to economic cycles in advanced economies (Cravo, 2017) and contributing the most to economic fluctuations (Crouzet and Mehrotra, 2020). It suggests that supporting systemic firms during economic downturns could help better sustain the investment potential of the business sector.

uA001fig06

Firm Investment Rate: Average and Size Dependency

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Orbis BVD Database and IMF staff calculations.Note: Firm investment is normalized by 1 -year lagged fixed asset value; size dependency of firm investment is computed by regressing investment on the log of fixed asset value – a coefficient of 0.05 implies that a 10-percent increase in firm asset value could raise investment rate by about 0.5 percentage points.
uA001fig07

Size-Dependent Firm Investment and Macro Conditions

(Adjusted R-squared, in percent)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Orbis BvD Database and IMF staff calculations.Note: The charts shows the adjusted R-squared of two different models, which are almost the same. The left bar shows the model with firm size intereacted with real interest rate, total deposits growth, and economic policy uncertainty. The right bar corresponds to the model that includes all possible macro-level shocks by controlling size cross year fixed effects. Firm size is measured using the logarithm of fixed asset value.
uA001fig08

Macroeconomic Variables: Financial Market Indicators

(in percent)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Bank of Spain, INE, Haver Analytics and IMF staff calculations.
uA001fig09

Macroeconomic Variable: Economic Policy Uncertainty

(Index, Mean = 100)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Source: Haver AnalyticsNote: EPU index for Spain is developed by Corinna Ghirelli, Javier J. Pérez and Alberto Urtasun, based on newspaper coverage frequency of 7 relevant Spanish national newspapers from January 1997 to the present: El País, El Mundo, La Vanguardia, ABC, Expansión, Cinco Días, and El Economista.

10. Firm-level characteristics, such as balance sheet health and growth potentials, have also shown to be significant determinants for firm investment. Firms with healthier balance sheets, i.e., the ones with lower leverage ratios and debt service ratios, tend to invest more regardless of the business cycle. These two ratios are often used in the literature (IMF, 2015; Gebauer et al. 2018) as proxies for firm financing constraints—companies with higher leverage ratio and debt service ratio have more limited financing space to cope with any negative shocks. Our results validate the significance of firm financial constraints on investment decisions. Moreover, we find that the relevance of balance sheet stress increases when financial conditions are tighter,7 and that it is the tangible capital investment that responds more strongly to changes in financial conditions. Finally, higher firm-level investment is also positively correlated with stronger future sales growth and return on asset.

uA001fig10

Factors Limiting Manufacturing Production: Financial Access

(Percent of surveyed firms)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: European Commission Business and Consumer Survey.
uA001fig11

Investment and Balance Sheet Health

(coefficients)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: INE and IMF staff calculations.Note: This chart shows the coefficients of regressing firm investment on proxies for financial constriants, controlling for other variables on firm performance and fixed effects. Financial conditions are decided using a combination of real interest rate and lending growth.

Resource Misallocation

11. Resource misallocation has been a long-standing candidate for explaining the productivity differences across countries. Although misallocation can happen in various forms, for this chapter we focus on how the allocation of a given amount of capital and labor across heterogeneous producers can be distorted (Restuccia and Rogerson, 2017). Following the firm optimization problem described in ¶7, each firm will increase the amount of its inputs until the marginal products of inputs equal the marginal costs. In a frictionless market, an efficient allocation of inputs that maximizes aggregate output will thus equalize the marginal products of labor and capital across all producers with the same costs. By examining the dispersion of firm marginal revenue products of capital (MRPK) and labor (MRPL), and the statistical correlation between these marginal products and firm characteristics, we could identify possible sources8 of misallocation and discuss policy solutions to improve the allocative efficiency of production inputs. We also find significant and positive correlations between the model-based measure of cost of capital, MRPK, and observed indicators for financial constraints. For example, firms that have a higher MRPK also pay a higher level of effective interest rate, and hold on average a larger share of intangible assets. For the rest of this chapter, we use the marginal revenue product of capital (labor) and the marginal cost of capital (labor) interchangeably.

uA001fig12

Marginal Cost of Capital (MRPK) and Effecitve Interest Rate

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Orbis BvD database and IMF staff calculations.Note: The data sample is divided into 50 equal bins based on the estimated effective interest rate. For each bin, the chart shows the median effecitve interest rate and the median value of log(MRPK).
uA001fig13

Marginal Cost of Capital (MRPK) and Intangible Assets

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Orbis BvD database and IMF staff calculations.Note: The data sample is divided into 50 equal bins based on the share of intangible assets, ranging from 0 to 1. For each bin, the chart shows the median intangible asset share and the median value of log(MRPK).

12. The within-sector allocative efficiency in Spain’s capital market has stabilized in recent years, consistent with rising TFP. Nevertheless, Spain remains more inefficient relative to early 2000s compared to more productive countries in the region such as France and Germany.9 The stabilization of capital misallocation in recent years (Moral-Benito and Fu, 2015; García-Santana et al., 2020) could partly be associated with the “cleansing effect” of credit contractions (Osotimehin and Pappadà, 2017), as bank lending declines. Research has also pointed to the positive impact of accommodative monetary policy on improving allocative efficiency (Albrizio et al., 2021). The still-elevated level of misallocation implies a large variation in firms’ marginal productivity of capital. Firms showing a higher level10 of marginal product of capital are facing a larger financing cost, and thus are more financially constrained. For the remainder of this section, we focus on understanding the allocative efficiency along two observable dimensions, firm size and age, and empirically test if there exist clear distortions in the capital market.

uA001fig14

Dispersion of Marginal Revenue Product of Capital (MRPK)

(whole sample, 2005 = 1)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Orbis BvD dabase and IMF staff calculations.
uA001fig15

Dispersion of Marginal Revenue Product of Capital (MRPK)

(manufacturing sector, 2005 = 1)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Orbis BvD database and IMF staff calculations.

13. Firms with lower fixed assets are subject to higher financing costs. Small and medium-sized enterprises (SMEs) are usually considered as having more difficulties in accessing external financial sources. However, what is often neglected in the discussion is the relevant criteria in classifying firm size, which can include employment, revenue, asset value, etc. In official statistics, SMEs are usually defined based on employment and revenue (European Commission, 2003). We find that the relevant criteria for capital market distortions is the level of capital stock, measured as the total value of fixed assets. Micro, small, and medium-sized firms defined based on fixed asset value pay a higher cost of capital compared to large firms, both before the euro area crisis and in recent years. This finding is consistent with the literature emphasizing the importance of collateral constraint (the maximum amount of external financing is determined by the value of firms’ existing capital stock) for scaling up production. Firm size measured by employment, on the contrary, does not show a robust correlation with the cost of external financing. As a robustness check, we also find that firms with less capital stock on average pay higher effective interest rates, which can serve as a proxy for average borrowing cost.

uA001fig16

Firm Marginal Cost of Capital Across Different Sizes

(in log differences)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Orbis BvD Database and IMF staff calculations.Note: The chart shows the difference relative to the group of large firms, controlling for firm-specific characteristics and region-industry-year fixed effects. The shaded bars imply that the differences are statistically insignificant.
uA001fig17

Firm Effective Interest Rate Across Different Sizes

(in percentage points)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Orbis BvD Database and IMF staff calculations.Note: The chart shows the difference relative to the group of large firms, controlling for firm-specific characteristics and region-industry-year fixed effects.

14. Start-ups with an age of less than two years also face significantly higher frictions in the capital market. Compared to EU peers, Spain’s business sector tends to have lower entry rates and lower post-entry survival rates, suggesting that the young firms face significant barriers not only in entering the market but also in maintaining their businesses. Although the gaps in entry rates and the survival rate within the first two years have been declining before 2015, they became larger again in recent years. Another interesting finding is that Spanish firms seem to be facing a tougher environment only in the first two years—conditional on surviving after 2 years, the probability of surviving within 3 to 5 years is larger in Spain than in a median EU country. In addition, only firms that are 1 or 2 years old seem to be facing significantly higher cost of capital compared to established firms with 10 or more years of experience. Therefore, policies should focus on supporting startups to help them survive through the first two years.

uA001fig18

New Entrants

(in percent of active enterprises)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Eurostat Business Demography Database and IMF staff calculations.
uA001fig19

Survival Rates Within the First Two Years

(in percent of total entrants within the past 2 years)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Eurostat Business Demography Database and IMF staff calculations.
uA001fig20

Conditional Survival Rate: 3 to 5 Years After Birth

(in percent of the number of enterprises survived after 2 years)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Eurostat Business Demography Database and IMF staff calculations.Note: The conditional survival rate is computed as the ratio of the probability of surviving in 3–5 years over the probability of surviving after two years.
uA001fig21

Firm Marginal Cost of Capital and Age

(in log differences)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Orbis BvD Database and IMF staff calculations.Note: The chart shows the difference relative to the group of firms with 10 or more years of experience, controlling for firm-specifica characteristics.

15. In addition to capital market imperfections, misallocation could arise due to the large number of size-dependent regulations in Spain. The prevalence of small and micro firms is high in Spain compared to other European countries, and it is one of the factors that explains Spain’s low aggregate productivity, since SMEs have on average significantly lower TFP compared to large firms. Size related rules and regulations can potentially create a “small business trap” (IMF Country Report, 2018; CEPYME, 2021). More than 100 size related regulations are present in Spain, ranging from accounting, financial, insurance, labor, to tax areas. These have created advantages for small business but could have also reduced incentives to grow and created inefficiencies. For example, firms with less than 10 employees and with 10–49 employees have less responsibilities in forming a workplace representation, which could imply a lower cost of labor from the firms’ perspectives. Using the growth accounting framework in 117, we also find that firms with less than 10 employees and with 10–49 employees pay less for labor, which could imply size-related misallocations in the labor market

Examples of Size-Dependent Regulations

article image
Source: CEPYME.

The accounting regulations would apply if companies meet both conditions related to assets and sales, regardless of its total number of employees.

uA001fig22

Euro Area: Share of Firms with 1–9 Employees

(in percent of total enterprises, 2019)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Eurostat (Structural Business Statistics) and IMF staff calculations.Note: Ireland is not included due to data availability.
uA001fig23

Total Factor Productivity (TFP) and Firm Size

(in log differences)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Orbis BvD database and IMF staff calculations.Note: The chart shows the difference relative to the group of large firms with 250 or more employees, controlling for firm-specific characteristics and region-industry-year fixed effects.
uA001fig24

Firm Marginal Cost of Labor Across Different Sizes

(in log differences)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Orbis BvD Database and IMF staff calculations.Note: The chart shows the difference relative to the group of firms with 250 or more employees, controlling for firm-specific characteristics. The shaded bars imply that the differences are statistically insignificant.

16. The long-standing structural challenges in the labor market can be another source of inefficiency preventing more efficient allocation of the workforce, particularly for the young firms. Dolado et al. (2011) found that across different sectors, young firms in general use a larger share of temporary contracts, which also implies a higher risk of employment instability for these firms. This can be rationalized by the fact that newer firms are forced to make a more widespread use of flexible temporary contracts for precautionary reasons. In addition, young firms could face higher labor search costs compared to established franchises (Minkler, 1992). Finally, the rigidity in the labor market could also have prevented these young firms from expanding their production to the desirable scale. Using the growth accounting framework, we verify again that startups (with an age of less than 2 years) and young firms (with an age of 3–5 years) have a higher labor wedge, suggesting more distortions facing them also in the labor market. Therefore, supports to startups could consider including non-monetary measures such as promoting employee ownership and facilitating startup spin-offs from science and universities (Comprehensive startup strategy, Germany). Spain has recently modified its labor regulation to promote the use of permanent contracts rather than temporary ones. Since the implementation of the reform, there has been a significant increase in the share of permanent contracts, but it is still too early to make a full assessment. The new legal framework has also strengthened short-time work schemes to provide flexibility to firms facing shocks. These changes could have a positive impact on workforce allocation, including across young firms.

uA001fig25

Firm Marginal Cost of Labor Across Age Groups

(in log differences)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Orbis BvD Database and IMF staff calculations.Note: The chart shows the difference relative to the group of firms 6 or more years of experience, controlling for firm-specific characteristics. The shaded bars imply that the differences are statistically insignificant.

Other Drivers of TFP

17. Product market competition, which has been affected by the regional dispersion of regulatory frameworks, could also have an impact both firm-level TFP and investment. Spain approved the Market Unity Law in 2013, which aimed to align regulatory requirements by the central, regional, and local authorities. Nevertheless, the application of the Market Unity Law remains slow due to the null and void declaration of key principals by the Spanish Constitutional Court in 2017, and as a result, regulatory differences across autonomous communities and municipalities have not improved materially. A recent study by Llano-Verduras et al. (2021) found that fragmentation of the Spanish market has been increasing since the GFC, and that sub-national regulations have been significant contributors. An earlier study by the IMF (IMF, 2015) has stated the importance of product market competition on firm-level TFP by exploring cross-industry variations in ex-ante regulation stringency. Based on an ex-post measure of local market concentration (¶8), we find that a more competitive local product market implies both higher investment and higher TFP at the firm level. This finding is consistent with the literature finding (Gutiérrez and Philippon, 2017; IMF, 2019) that increases in the market power of already-powerful firms could weaken investment, deter innovation, and reduce labor income shares.

Importance of the Factors in Firm Growth: 2015 vs 2019

(in percent)

article image
Note: Data drawn from the module devoted to opinion on the business environment, of the INE business confidence index. It represents the difference between the percentage of firms giving a high importance to those factors and the percentage of firms giving them a low importance.
uA001fig26

Regulatory Barriers: Regional Distribution

(in percent)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Source: INE Business Confidence Indicators.Note: “Economic Regulation” and “Legal Costs” report the share of surveyed firms identifying these two areas as unfavourable; “Administrative Burden” report the share of firms identifying increased burden related to paperwork.
uA001fig27

Produce Market Concentration, Investment, and TFP

(in percentage points)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Orbis BvD database and IMF staff calculations.Note: The chart shows the coefficients of regressing firm-level log TFP and investment rate on local market Herfindahl–Hirschman index (HHI). The chart shows the impact of HHI changing from 0 to 1.

18. Spain continues to rank relatively low in business innovation, which can be critical for productivity growth. Business research and development (R&D) spending in Spain as a share of GDP lags European and OECD peers and it has not increased materially since 2008. Despite the relatively high implied tax subsidy rate for R&D activities, the take-up rate of R&D tax incentives has been limited in the past. Overall government support of business R&D (both direct and indirect) fall short compared to the frontier of the region (OECD, 2021). The number of firms conducting R&D activities and the number receiving R&D tax reliefs have both been declining in recent years (Xifré, 2018; OECD, 2021). In addition to R&D, Spanish businesses also lag in terms of other innovative activities, including business and public-private collaborations, process innovations, and business non-R&D innovative expenditures.

uA001fig28

OECD: R&D Intensity

(in percent of GDP)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: OECD Main Science and Technology Indicators.
uA001fig29

R&D and Other Innovations, 2021

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Source: European Commission – European Innovation Scoreboard.

19. Increasing the educational attainment level of workers and employers is crucial to boosting productivity. Despite a 13-percentage point decline over the last decade, the rate of early leavers from education and training (age 18–24) in Spain is still among the highest in Europe. In addition, enrollment in vocational education and training (VET) remains low compared to the region. The structural transformation of the economy, including digitalization and greening, is expected to raise demand on certain skills, such as communication & creation, and information skills (IMF, 2022 Selected Issues). An ageing population also requires emphasis on learning and re-skilling throughout employees’ work lives. Recent reforms to the vocational and training system and the introduction of incentives for the provision of training are aligned with this objective. The reforms to active labor market policies included in the RTRP also aim at promoting learning and re-skilling throughout employees’ work lives by creating personalized itineraries for low employability groups, with focus on those skills most demanded by the market.

uA001fig30

Early Leavers From Education and Training

(Percent of total 18–24 population; 2021)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Source: Eurostat and IMF staff calculations.Note: “Early leavers” are persons aged 18–24 who have attained at most lower secondary education and have not being involved in further education or training.
uA001fig31

Share of Upper Secondary Students in VET Programs

(Percent of total students enrolled in upper secondary education; 2020)

Citation: Selected Issues Papers 2023, 012; 10.5089/9798400235634.018.A001

Sources: Eurostat and IMF staff calculations. VET = Vocational Education and Training

D. Recent Policies to Promote Productivity Growth

20. Spain has committed to undertake ambitious reforms as part of its recovery plan. These initiatives cover areas that are key determinants of productivity, as discussed in the previous sections. While the plan identifies the right priorities, its success will ultimately depend on design and implementation details.

  • Human Capital. One of the main objectives of the labor reform enacted in 2022 was to combat the high prevalence of temporary employment, which hinders the accumulation of workers’ human capital. While it is still too early to assess the impact of the reform, initial data suggests that the proportion of permanent hires has increased significantly. The recovery plan also includes ambitious education reforms to help boost human capital, including investments in digital skills, expansion of vocational training, modernization of the education system and revamp active labor market policies (which is important to limit the loss of human capital during unemployment). It will be important to evaluate the effectiveness of the new programs once they have been in place for some time.

  • Innovation. The recently approved Law on Science, Technology and Innovation sets a goal for R&D public funding of 1.25 percent of GDP by 2030 (3 percent including private investment). The plan to increase budgetary support for R&D and innovation is welcome but should be complemented with a review of the existing incentives framework. Further efforts are needed to strengthen collaborations between the public and private sectors and identify impediments to business innovation. The adoption of large strategic projects (PERTEs) provides a good opportunity to work on the synergies between public and private investment and foster innovation.

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21. There are several ongoing initiatives to improve business dynamics. The recently approved Law on Business Growth includes measures to eliminate financial and administrative barriers to firm growth and to reduce delinquency rates. A new Start-up Law is also being legislated to provide incentives and facilitate the creation of innovative companies. The new sectoral conference for Regulatory Improvement and the Business Climate, established in 2021, aims at enhancing cooperation and sharing of best practices among different levels of the government to foster business activity. Further efforts should focus on reviewing size-dependent regulatory thresholds in the labor and tax spheres (which may be discouraging business growth), and better aligning the regulatory framework across regional and local authorities to promote market integration and business competition.

E. Conclusion

22. This chapter studies the development and drivers of labor productivity in Spain using both macro and firm-level data. The low labor productivity growth in recent years was mostly driven by a lack of capital deepening because of weak firm investment, amid a continued deleveraging process since the GFC. The analysis finds that large firms lowered investment disproportionally more in response to the unfavorable macroeconomic shock, and that firm balance sheet health and growth potential are significant factors affecting investment decisions. Moreover, allocative inefficiency remains relatively high in Spain compared to neighboring countries. Misallocation across firms’ size and age groups is identified both in the capital market and in the labor market (based on different measures of firm size). This suggests that financial frictions due to size-dependent financial constraints remain a significant determinant of TFP. In addition, the size-dependent labor regulations (and possibly other regulations, including in the areas of tax and accounting) could have disincentivized a more efficient allocation of workers. Startups with less than 2 years of experience are the most vulnerable age group, which show a much lower survival rate compared to other European countries and significant disadvantages in both the capital and the labor market compared to older firms. Finally, the analysis finds that high market concentration is associated with both weak investment and weak TFP growth.

23. Safeguarding firm balance sheets and supporting large and systemic companies during downturns could help limit the impact of negative macroeconomic shocks on investment. Firm support measures taken during the pandemic, including the state-backed guarantee program and the solvency support to strategic companies and other businesses affected by COVID have successfully preserved the environment for resuming corporate investment. Reducing economic policy uncertainty and reforms in product market regulation would also help boost investment. Public investment in large strategic projects (PERTEs), and effective implementation of structural reforms, could crowd in private investment in tangible as well as intangible capital (Alloza et al., 2022).

24. Further efforts on improving the allocative efficiency of production factors could enhance firm TFP growth. The several initiatives planned in the context of Spain’s recovery plan go in the right direction. Going forward, continued policy effort is needed to alleviate distortions faced by startups and SMEs. These include: improving access to finance for disadvantaged firms (e.g. startup with less than two years of experience or firms with limited physical capital to use as collaterals), reviewing the large number of size-related rules and regulations, and expanding non-monetary support to startups (including facilitating the search for talent, providing easier access to data, and reducing regulatory costs). Continued work on aligning the regional regulatory framework and improving product market competition is also warranted.

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Annex I. Data Coverage and Sample Selection

The table below summarizes the comparison of sectoral value added and wage bills between 2019 and 2003 in both the Orbis BvD database and in Eurostat. The 10 sectors selected for our firm-level analysis also show similar dynamics in the developments of the two variables from the two data sources, but they are not shown in the annex due to space limits.

Annex Table I.1.

Spain: Sectoral Value Added and Wage Bills

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Note: The table shows the ratios of the nominal value of 2019 value added and wage bills over the relevant nominal value in 2003, from both the Orbis sample and macro statistics in Eurostat.

Annex II. Definition of Variables and Summary Statistics

Variable Definition (additional)

Net investment rate, Invit: the change in the value of fixed assets, divided by the total capital stock (1-year lagged value of fixed assets).

Leverage ratio, Leverageit: total outstanding debt minus cash and its equivalents, divided by total assets.

Debt service ratio, DebtRatioit: interest payments plus financial costs divided by gross operating revenue plus gross financial revenue.

Sales growth rate, SalesGrowthit: the percent change of sales revenue relative to the previous year. The variable takes a value of zero if firm sales are zero in two subsequent years.

Return on asset, ROAit: sum of gross operating revenue plus gross financial revenue minus financial costs and interest payments, divided by total assets.

Summary Statistics

Annex Table II.1.

Spain: Descriptive Statistics, Full Sample

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Note: All the variables are winsorized to eliminate the impacts from the bottom and top 1 percent. Observations with effective interest rate higher than 100 percent are also excluded.
1

Prepared by Nicolas Arregui and Yu Shi (both EUR).

2

Defined as the ratio of capital services (i.e. stock adjusted by quality) over total hours worked.

3

The data sample is an unbalanced panel with about 8 million total observations .

4

For a complete discussion of the construction of variables, see Annex II for details.

5

The specification of the wedge parameter, τ can be slightly different depending on whether the analyses focus more on the factors markets (capital, labor) or the product market. In this paper, we model the frictions in the capital market and the labor market following Hsieh and Song (2015).

6

π, p, y, r, δ, k, w, l represent profit, output price, output, market interest rate, sector-specific depreciation, capital stock, and employment, respectively; i, s, t refer to firm, sector, and year.

7

Tighter financial conditions imply that real interests are higher and that the total deposits growth in the financial system is lower.

8

Common drivers of misallocation that have been discussed in the literature include tax and labor regulations, discretionary governance or credit provision, imperfect competition in the capital, labor, and product markets, etc. (Restuccia and Rogerson, 2017).

9

This exercise fixes the sectoral share of gross value added at its initial level and normalizes MRPK dispersion in 2005 as 1 for all countries. A potential caveat of the exercise is that although the Orbis BvD database is relatively representative for Spain, it could be less representative for other countries. In the comparison chart, we show results starting 2005 to avoid any big jumps in sample coverage. In addition, the comparison for manufacturing firms is consistent with the one discussed in Gopinath et al. (2017).

10

After controlling for aggregate financial market conditions and the specifics of each industry.

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Labor Productivity Dynamics in Spain: A Firm-Level Perspective: Spain
Author:
Mr. Nicolas Arregui
and
Ms. Yu Shi
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    Labor Productivity

    (GDP in const. 2015 prices divided by hours worked)

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    Labor Productivity Growth by Sector 1996–2021

    (annual average growth; in percent)

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    Labor Productivity Growth

    (annual growth rate, in percent)

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    Spain Labor Productivity Growth Decomposition

    (in percent)

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    Capital Deepening Growth

    (in percent)

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    Firm Investment Rate: Average and Size Dependency

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    Size-Dependent Firm Investment and Macro Conditions

    (Adjusted R-squared, in percent)

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    Macroeconomic Variables: Financial Market Indicators

    (in percent)

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    Macroeconomic Variable: Economic Policy Uncertainty

    (Index, Mean = 100)

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    Factors Limiting Manufacturing Production: Financial Access

    (Percent of surveyed firms)

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    Investment and Balance Sheet Health

    (coefficients)

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    Marginal Cost of Capital (MRPK) and Effecitve Interest Rate

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    Marginal Cost of Capital (MRPK) and Intangible Assets

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    Dispersion of Marginal Revenue Product of Capital (MRPK)

    (whole sample, 2005 = 1)

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    Dispersion of Marginal Revenue Product of Capital (MRPK)

    (manufacturing sector, 2005 = 1)

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    Firm Marginal Cost of Capital Across Different Sizes

    (in log differences)

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    Firm Effective Interest Rate Across Different Sizes

    (in percentage points)

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    New Entrants

    (in percent of active enterprises)

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    Survival Rates Within the First Two Years

    (in percent of total entrants within the past 2 years)

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    Conditional Survival Rate: 3 to 5 Years After Birth

    (in percent of the number of enterprises survived after 2 years)

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    Firm Marginal Cost of Capital and Age

    (in log differences)

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    Euro Area: Share of Firms with 1–9 Employees

    (in percent of total enterprises, 2019)

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    Total Factor Productivity (TFP) and Firm Size

    (in log differences)

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    Firm Marginal Cost of Labor Across Different Sizes

    (in log differences)

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    Firm Marginal Cost of Labor Across Age Groups

    (in log differences)

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    Regulatory Barriers: Regional Distribution

    (in percent)

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    Produce Market Concentration, Investment, and TFP

    (in percentage points)

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    OECD: R&D Intensity

    (in percent of GDP)

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    R&D and Other Innovations, 2021

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    Early Leavers From Education and Training

    (Percent of total 18–24 population; 2021)

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    Share of Upper Secondary Students in VET Programs

    (Percent of total students enrolled in upper secondary education; 2020)