The effect of minimum wages increases on youth employment level has been extensively analysed, but recent contributions have highlighted the potential bias in these studies due to neglected spatial autocorrelation in the considered relationship. This paper contributes to this scarce literature by providing novel evidence for a country with very low interregional mobility. The aim is to see if the bias of neglecting spatial dependence acts in a similar direction than in the few studies for the United States and if this bias explains the low elasticity of youth employment to minimum wages in Spain compared to the international literature. Our results show the relevance of spatial spillovers in the Spanish regional labour markets, but after correcting for the bias, we do not find a significant negative elasticity of youth employment to minimum wages, with the only exception of those between 16 and 19 years old.
Background and objectives
The analysis of the effect of the minimum wage on youth employment is interesting since, in the developed economies, they are generally those with lower wages and higher levels of unemployment. In fact, the social and economic impact of the Great Recession on youth has been particularly strong in these countries. Job creation has stagnated since the beginning of the global financial crisis and young people, particularly those entering the labour market for the first time, have found much more difficulties to find stable and well-paid jobs. For this reason, governments in these countries are using minimum wages as one of the main tools to fight against in-work-poverty (Holtemöller & Pohle, 2019; Majchrowska & Strawiński, 2018), especially for youth, but at the same time, the impact of these policies on youth employment levels is uncertain.
Our objective is to provide new evidence about the impact of minimum wages on youth employment rates for Spain, a labour market characterised by a high level of rigidity and where minimum wages have substantially increased during the last recent years.
There is a substantial body of empirical evidence on the effects of the minimum wage on youth employment. Authors such as Neumark and Wascher (2004) or Dolton and Rosazza-Bondibene (2012), among others, have found a negative relation between employment and minimum wages for young people between 15 and 24 years. However, considering 328 estimates from different 15 countries covering the period running from 1990 to 2015 and applying meta-analytical techniques, O’Higgins and Moscariello (2017) have concluded that there is no significant effect of minimum wage on youth unemployment.Footnote 1 This result contrasts with the prediction of standard neoclassical theory that establishes that when the minimum wage is raised, labour demand reduces and at the same time, labour supply increases. The result is a reduction in the level of employment (or hours worked) and an increase in unemployment. However, as Schmitt (2013) highlights, increases in minimum wage could also be adjusted by firms through other channels such as increases in the prices of products or through a reduction of social benefits that could alleviate the negative effects on employment. Moreover, an increase in the wage of workers affected by minimum wages -with lower purchasing power- could favour consumption and increase the labour demand for local companies. In fact, the dynamic monopsony model also states that frictions in the labour market, such as those related to hiring new workers and the difficulties associated to find a job, especially for some groups, suppose that the labour market operates with vacant positions. An increase in the minimum wage could increase supply and may lead to positive effects on employment at macroeconomic level as it improves the quality of matching and reduces unfilled vacancies.
These mechanisms, however, are clearly associated to spatial aspects of the labour market that have been systematically ignored in the literature. Previous studies of the minimum wage have neglected the issue of spatial dependence. This has potentially led to biased, inconsistent, and inefficient parameter estimates. In fact, to the best of our knowledge, the only studies that account for the fact that minimum wages and youth employment could be correlated across political boundaries are Kalenkoski and Lacombe (2008, 2013). These authors argue that "this correlation may exist whether a change in the effective minimum wage in a state (i.e., the maximum of the state and federal minimum wages) affects employment not only in its own state but also in other neighbouring states". In case that minimum wage is increased in one state, workers in a neighbouring state without an increase may decide to cross the border to benefit from this increase. If this happens, the overall effect of the minimum wage increase should also consider the reduction in employment in the neighbouring state in addition to the potential reduction in the state that increased its minimum wage. This indirect effect can be captured by applying spatial econometric techniques. The results by Kalenkoski and Lacombe (2008, 2013) for the US states applying these techniques allows them to conclude that ignoring spatial correlation biases the estimates of the effect of minimum wages on youth employment (both in cross-sectional or panel data settings). In their case, the obtained elasticity after controlling for spatial dependence is higher than the one obtained when using a standard panel data model.
This research contributes to this scarce literature by considering spatial effects in the relationship between minimum wage and employment in Spain, a country with relatively low mobility of young workers (Ramos & Royuela, 2017) and with a high increase in the minimum wage during the considered period. Between 2010 and 2018, an internal wage devaluation process took place in Spain but, at the same time, minimum wages measured by the Kaitz Index, the ratio of the minimum wage to average wages (Kaitz, 1970) increased substantially. In particular, this index increased from values close to 41% in 2006 to 50% in 2018. Although in Spain there is no territorial differentiation of the minimum wage in nominal terms, the existence of different regional price levels and inflation rates (Costa et al., 2015, 2019) makes the real magnitude of the Kaitz index territorially heterogeneous varying at the provincial level between 30% and almost 70%. Therefore, in our work, we take profit of the spatial variations in the Kaitz index and youth employment rates during the recession and subsequent recovery in Spain to provide new evidence of the relevance of spatial spillovers in the labour market in a low mobility country and how omitting spatial dependence in the analysis could bias the obtained results. In fact, there is a wide literature showing the relevance of spatial spillovers between regional labour markets in Spain. A part of the seminal works by López-Bazo et al. (2002, 2005) and, more recently, López-Bazo and Motellón (2012), Cuéllar-Martín et al. (2019) show clear evidence of the importance of spatial effects to explain the regional evolution of employment in Spain while Martín-Román et al. (2020) perform a similar analysis for participation rates. Our results are well in line with this previous literature: spatial spillovers are relevant to explain youth employment rates and we provide evidence on how omitting spatial dependence could bias the estimates of the elasticity of interest. After controlling for spatial dependence, we find no evidence of a significant negative effect of minimum wages on total employment between 2006 and 2018, but only on youth aged between 16 and 19 years. Dube et al. (2010) use a different approach identifying policy discontinuities on minimum wages at state borders as part of the modelling strategy, but the conclusion is the same: not accounting for local economic conditions tend to produce spurious negative effects due to spatial heterogeneities in employment trends that are unrelated to minimum wage policies.
The rest of the paper is organised as follows. First, in Section 2 we present the data and the methodology used for our empirical analysis. In Section 3 we present and discuss the obtained results and, finally, we summarise the main findings and conclusions of our research.
Data and methodology
The analysis of the influence of minimum wages on youth employment taking into account the spatial dynamics requires information disaggregated at provincial level (NUTS 3). Province is the territorial administrative unit that is generally considered the one closest to the concept of local labour markets. In our analysis, we take into account 46 of the 52 Spanish provincesFootnote 2 and autonomous cities.
We have used several data sources to carry out our empirical analysisFootnote 3. The employment data has been drawn from the Labour Force Survey (Encuesta de Población Activa, EPA). We resort to the microdata of this survey because we need the information disaggregated at provincial level and for heterogeneous groups in terms of age and gender. We also use the EPA microdata to obtain information about the level of temporality and also part-time employment, which are control variables in our analysis. EPA also reports information on the industry composition of employment to construct the Theil Index and also the data to obtain the regional human capital indicator, which is calculated taking into account the Instituto Valenciano de Investigaciones Económicas (IVIE) methodology. With regards to the information on wages, the Spanish Agency of Tax Administration (Agencia Española de Administración Tributaria, AEAT) provides the annual wage of the average employeeFootnote 4. Provincial GDP is obtained from the Spanish Regional Accounts (Contabilidad Regional de España, CRE). The data of total population and population by age groups is obtained from the Municipal Register, meanwhile data on provincial surface, which will be used to obtain the population density, is obtained from the Statistical Yearbook of the National Institute of Statistics (Instituto Nacional de Estadística, INE).
In order to assess whether the minimum wage has had any impact on the employment rate in Spanish for the period 2006-2018, we specify the following model:
ln(ERit) is the natural logarithm of the employment rate in period t corresponding to the province i differentiated by age [ ln(ER), ln(ER _ 1619), ln(ER _ 2024), ln(ER _ 2529)]
ln(Kaitzit) is the natural logarithm of the Kaitz index, which is the relation between the minimum wage and the average nominal wage in each province
Xit is a set of additional controls related to the evolution of employment rates
τ, ρ, δ, β, γ, θ, λ are the coefficients of the variables of the model
μi captures provincial fixed effects
αt captures time fixed effects
uit is a random error term that could also follow a spatial autoregressive pattern subjected to idiosyncratic shocks captured by εit
Equation (1) represents a rich family of spatial models that have been considered in the literature (Anselin, 2003; Elhorst, 2014; Fingleton, 2008a, b; LeSage & Pace, 2007). Depending on the different types of spatial interactions that are considered in the specification, we estimate the following models:
Spatial Autorregresive Combined Model (SAC) allowing spatial interactions in the endogenous variable (WY) and in the error term (WU), but not in covariates,
Spatial Durbin Model (SDM) allowing spatial interactions in the endogenous variable (WY) and in covariates (WX), but not in the error term (WU),
Spatial Autorregresive Model (SAR) allowing spatial interactions in the endogenous variable (WY), but not in covariates or in the error term,
Spatial Error Model (SEM) allowing spatial interactions only in the error term (WU).
Instead of adopting a model selection strategy between these different specifications, we present all the results in order to check if the consideration of various types of spatial spillovers modifies the effect of our covariate of interest, the Kaitz index. It is worth mentioning that Eq. (1) also introduces the employment rate lagged one period in order to capture the existence of hysteresis in the dynamics of employment (see, for instance, Mota et al., 2012).
Different variables that are likely to affect employment rates have been considered as additional controls (Xit). In particular, we include the growth rate of the provincial gross domestic product (GDP) lagged one period (in order to avoid potential endogeneity)Footnote 7, the Theil index of sectoral specialisation based on 5 activity sectors (agriculture, manufacturing, construction, private and public services), the population density, the part-time employment rate, the temporary employment rate and the average number of years of schooling by province (a human capital indicator) computed following the methodology by IVIE using microdata from the Spanish Labour Force Survey. As previously mentioned, we have also introduced time fixed effects in order to capture the common shocks that all provinces have suffered during each year of the considered period. Last, provincial fixed effects are also introduced to take into account provinces’ specificities not captured by the rest of variables.
Equation (1) has been estimated for the employment rate and for the youth employment rate distinguishing by age groups (16-19 20-24, and 25-29). The consideration of the overall employment rate is for comparison purposes only as our main interest is in youth employment rates. However, as young people are supposed to be more geographically mobile, it is interesting to see whether we find different results for both groups.
Results and discussion
Figure 1 shows some descriptive evidence on the relationship between the Kaitz index and the employment rate for the different groups of workers considered in our analysis. A clear negative relationship is observed in all cases, although the correlation is slightly stronger for all workers than for younger groups.
Figure 2 represents the values corresponding to Global Moran’s I using a contiguity spatial matrix. Data evidence a strong positive spatial dependence with a high stability over time for the total employment rate, but a stronger variation for youth employment rates, particularly for those aged 16-19. Figure 3 show the results obtained using the local statistics of Moran’s I for the employment rate. It is interesting to see that for total employment rate two clear geographical areas can be observed: one located in the south-west and in the north-east of Spain and another one covering the rest of the country. The picture seems to be quite stable over time. However, when looking at youth employment rates, the pattern is different with higher values of the statistics in Northern regions and lower values in Southern ones. This is particularly true for the employment rate for those aged 16-19. This exploratory analysis confirms the existence of spatial spillovers in the employment rate that seem to be different depending on the considered age group. These results reinforce the idea that we cannot omit the potential existence of spatial spillovers when analysing the impact of minimum wages on regional employment ratesFootnote 8 .
Tables 1 shows the results of estimating Eq. (1) for the employment rate under different specifications. Column 1 shows the results of estimating a model assuming a linear relationship between the log of the Kaitz Index and the log of the employment rate controlling for the effect of the considered covariates but without spatial effects. The next columns contain the results of estimating the different types of spatial models described in the methodology section. In particular, the results shown here have been obtained using a spatial contiguity matrixFootnote 9, while those obtained using the inverse of distance spatial matrix and the Knn(5) spatial matrix are shown in Tables 2, 3, 4 and 5 in the appendix. Results are very similar to the ones described here based on Table 1.
In all specifications, the coefficient associated to the lagged value of the employment rate is positive and statistically significant at the usual levels with values around 0.5 for total population and between 0.2 and 0.3 for youth, values that are well in line with the values found in the previous literature. The coefficient associated to the Kaitz index is not statistically significant at the usual levels for total employment, while regarding specific age groups, the only group that seems to be affected by the increase in minimum wages when no spatial spillovers are considered is the group aged 24-29, where the Kaitz index is negative and statistically significant at the 10% level with an elasticity close to -0.3, a value that is well in line with those found in the international literature. In particular, in their analysis for 17 OECD countries between 1975 and 2000, Neumark and Wascher (2004) obtained an elasticity of the employment rate to the Kaitz index of -0.13 for youth between 15 and 24 years old and -0.18, when the 15 to 19 population aged group was considered. Dolton and Rosazza-Bondibene (2012), in their analysis for 33 OECD countries for the 1971-2009 period, obtained a minimum wage coefficient of -0.20 for youths between 15 and 24 years old. Analysing 18 EU member states between 1996 and 2011, Laporsek (2013) found much higher elasticities ranging from–0.29 to –0.38 for the 20–24-year-old age group and from –0.74 to –1.05 for the 15–19-year-old age group. Arpaia et al. (2017) obtained a negative elasticity between -0.13 and -0.20 for workers between 20 and 24 in the European Union (EU) member states. Last, analysing Canadian provinces, Rybczynski and Sen (2018) found an elasticity around -0.04 for youth aged 18-19 years old.
But, to what extent the previous results are biased by the fact we are neglecting spatial dependence when estimating the relationship between employment rates and minimum wages? After considering the effect of spatial spillovers, no effect of the minimum wage is found for the age group 24-29. The opposite situation is observed for youth between 16 and 19 years old. In fact, this is the age group when less-skilled workers face their school-to-work transition and, as expected, it seems to be the one that has been more damaged by the relative increase of minimum wages during the recession. While the Kaitz index was not statistically significant in the non-spatial model for this age-group, when considering different types of regional spillovers, a negative and statistically significant relationship emerges between employment rates and minimum wages. The elasticity is much higher than the value observed in the international literature for this specific group, although relatively close to estimates for this age group by Laporsek (2013) when considering 14 EU countries between 1996 and 2008. He finds an elasticity of -1.9 while our estimates are around -2.5. This higher elasticity found for the Spanish economy can be potentially explained by the high increase of the Kaitz index during the Great Recession (as a result of the internal devaluation policy adopted by the Spanish Government), but also by the lower geographical mobility of youth in Spain when compared to other EU countries. Last, it is worth mentioning that, as in Kalenkoski and Lacombe (2018), the value of the elasticity increases after controlling for spatial dependence. These authors found an elasticity of teen employment to minimum wages of -0.18 when estimating a standard panel data model with state- and year-fixed effects, a value that increased up -0.21 when considering spatial dependence, a larger estimate because it includes both direct and indirect effects. So, the obtained evidence confirms the need to consider spatial interactions when analysing the relationships between minimum wages and employment rates in order to avoid potential biases that could seriously affect the conclusions from the empirical analysis Fig. 4, 5, 6 and 7.
In this paper, we have analysed the effect of minimum wages on total and youth employment in Spain taking into account the potential presence of spatial dependence in the considered relationship, an aspect that has been systematically neglected in the literature.
The analysis for the Spanish provinces is particularly interesting due to the low level of interregional mobility but also due to the high increase in the minimum wage during the recession and the high level of interregional heterogeneity in the Kaitz index.
Descriptive evidence shows a negative relationship between the Kaitz index and the employment rate that, however, is not confirmed in most cases when dynamic panel data including spatial spillovers are considered. In fact, our analysis confirms the need to take into account spatial interactions between regional labour markets, but it also shows that the bias of neglecting the existence of spatial spillovers could act in different directions as we have found that an initial negative effect of minimum wage on employment rates for youth aged 24-29 turned out to be non-statistically significant in spatial models, but an opposite result for those youth aged 16-19.
From a policy perspective, the obtained evidence suggests that for the considered period (2006-2018), minimum wages in Spain seem to be at a level that were not damaging overall employment creation, but it has substantially affected those youth aged between 16 and 19 years. The results are well in line with those obtained by Barceló et al. (2021) using microsimulation methods and analysing the increases of the minimum wage in 2017 and in 2019 (not considered in our work). They found that around 20% of workers aged 16-24 were affected by these measures and that the probability of losing their job among those directly affected by the measure increased between 6 and 11 percentage points. As Barceló et al. (2021) recognise, the analysis of the impacts of minimum wages should not only focus on employment variation. Looking at what has been the effect on wage inequality and low-paid jobs is also an important part of the story that should be considered in the policy debate. Last, it is also worth mentioning that our analysis (but also Barceló et al., 2021) do not consider the potential impact of minimum wage changes on participation decisions, an issue that deserves future analysis as it also clearly relevant from a policy perspective.
Interestingly, similar results have been obtained by meta-analysis considering the impact of the minimum wage on overall employment (see Bellman & Wolfson, 2014; Card & Krueger, 1995; Doucouliagos & Stanley, 2009; Leonard et al., 2014) and similar conclusions have been obtained in the recent narrative review by Dube (2019).
Ceuta and Melilla autonomous cities have been removed from sample given the small sample size of the Labour Force Survey and, therefore, the low statistical representativeness of the calculated indicators for these provinces. Besides, Navarra, Álava, Guipúzcoa and Vizcaya provinces are also removed since they are not included in the statistics of the Tax Agency used to approximate average wage levels at the regional level.
Table A1 in the Appendix provides a detailed description of the different data sources. Table A2 shows basic descriptive statistics for the variables considered in our analysis.
While similar information can also be obtained from Spanish Regional Accounts, provincial data from this source is only available until 2011 not allowing to consider the recent trends in the evolution of minimum wage in Spain.
The results shown in the main text are based on a spatial contiguity matrix. Similar conclusions have been obtained by using a spatial matrix based on the inverse of the distance and a k-nearest neighbours spatial matrix using information from the 5 nearest ones -knn(5). Tthe haversine distance has been used, which is the one recommended when the spatial units are located on the surface of the earth and the variables represent these spatial locations (Drukker et al., 2013). Detailed results for descriptive evidence and econometric analysis are shown in tables and figures in the appendix.
Three spatial units in our analysis are islands: Balearic Islands and Canary Islands (formed by two provinces). In this case, we have assumed that these provinces are “contiguous” to the nearest province: Valencia in the case of Balearic Islands and Cadiz in case of the Canary Islands.
Similar conclusions are obtained when using the inverse of distance or the Knn(5) spatial matrixes as shown in figures A1 to A4 in the appendix.
It is worth mentioning that the values of the Moran’s I statistics for the residuals of the cross-sectional estimates of Eq. (1) do not reject the existence of spatial autocorrelation in the considered relationship. Detailed results are available from the authors on request.
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The authors would like to express their gratitude to an anonymous referee and to the editor for their useful comments and suggestions. The usual disclaimer applies. Raul Ramos acknowledges the support received from the Agencia Estatal de Investigación (AEI - 10.13039/501100011033) through project PID2020-118800GB-I00.
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López-Tamayo, J., Melguizo, C. & Ramos, R. Minimum wages, youth employment and spatial spillovers: New evidence for Spain. Appl. Spatial Analysis 15, 891–917 (2022). https://doi.org/10.1007/s12061-021-09428-w
- Minimum wage
- youth employment
- Spanish regions
- spatial spillovers