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Assessing the relationship between R&D subsidy, R&D cooperation and absorptive capacity: an investigation on the manufacturing Spanish case

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Abstract

Private companies want to eliminate outgoing spillovers while policymakers seek to maximize them. With subsidized R&D cooperation agreements both agents partially achieve their objectives. For this reason, in Europe, policymakers grant subsidies for R&D activities with the condition of establishing R&D cooperation agreements. This study explores the relationship of complementarity between R&D subsidy, R&D cooperation and absorptive capacity in the context of its contribution to labor productivity of enterprises. The data used comes from the Technological Innovation Panel (PITEC), managed by the Spanish National Statistics Institute. We selected manufacturing companies in the period 2008–2013. We evaluate the existence of complementarity through the systems approach and the interaction approach. The econometric technique that we used to estimate the coefficients of our empirical model was maximum-likelihood random effects. As a consequence of the low absorptive capacity of Spanish manufacturing firms we find that R&D subsidies and R&D cooperation agreements are not complementary variables, i.e., receiving public subsidies as a result of establishing R&D cooperation agreements has a lower impact on productivity than the sum of the individual impacts of R&D cooperation and R&D subsidies. In consequence, this result calls into question the convenience of using subsidized R&D cooperation agreements as a tool for promoting innovation in EU countries as there are notable differences between the companies in these countries in terms of absorption capacity.

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Notes

  1. A large number of R&D cooperation agreements are taking place between companies that have a high potential to take advantage of spillovers generated by other companies. Thus, the partners mutually internalize their outgoing spillovers. In general, it is assumed that non-partner companies do not have such high potential, so they will not be in a position to benefit from spillovers generated by the partners.

  2. In 2009, Spanish R&D intensity was 1.38%, while in Finland, Germany, Austria and France it was 3.93%, 2.82%, 2.79% and 2.21% respectively (European Commission, 2011b). In this study we use R&D intensity as a proxy for absorptive capacity. Many previous studies have used the same proxy variable (e.g. Belderbos et al, 2004a; Cassiman and Veugelers, 2002; Cohen and Levinthal, 1990).

  3. We test the relationship between R&D cooperation and R&D subsidy variables in two different subsamples. One is formed by companies that have low absorptive capacity; the other is formed by companies that have a high capacity for absorption (of course, the concepts “high” and “low” refer to the Spanish reality). Clearly, our hypothesis is unconditional as we assume that the relationship between the variables analysed in both subsamples is that of substitution. Therefore, this substitution relationship is not conditioned by the existence of companies with high or low absorptive capacity.

  4. That is, we assume that the test that analyses the relationship between R&D cooperation and absorptive capacity in the two subsamples constructed from the third variable (companies receiving subsidies and companies not receiving subsidies) is substitutive. Therefore, a priori, in this second hypothesis we assume that the relation analysed is not conditioned by the value of the R&D subsidy variable. Our hypothesis is that the relationship is also unconditionally substitutive.

  5. Originally, our panel data contained 4536 manufacturing companies. However, as our goal is to work with a strongly balanced sample, we eliminated all the incorporations in the PITEC database that took place after 2008 (10 firms) and those companies that disappeared from PITEC between 2009 and 2013 (147 firms). Thus, our panel data set is made up of 4379 firms.

  6. For panel data and linear models, Stata provides five different model estimators. Three of these estimators do not allow suppression of the constant of the model, so they cannot be used in the systems approach. The complementarity tests in the systems approach and the interaction approach of the two other estimators (the ML random-effects and population-average estimators) provide the same results. We expose the corresponding data to the ML random-effects estimator.

  7. The population under analysis is made up of manufacturing companies with very different characteristics. It is therefore necessary to control this diversity (Cassiman and Veugelers, 2006). To this end, we include industry dummies at the two-digit industry classification level. These dummy variables are time invariant. However, invariant regressors are dropped in some models (for example, in GMM for the dynamic panel model and the fixed-effects model) because they are eliminated after first-differencing. Therefore, some models cannot be used to perform the complementarity tests as they do not allow suppression of the constant and/or do not allow the correct specification of our empirical model (that is to say, they cannot incorporate invariant regressors).

  8. From a different perspective, but with similar consequences, Hinloopen (2001) notes that in the case of optimally subsidizing cooperative or non-cooperative R&D, ‘sustaining R&D collaboratives is a redundant industrial policy, all else equal’.

  9. In the field of innovation literature there is a general perception that large companies are better positioned to capture the benefits of R&D cooperation. Larger firms have a greater and better capacity to internalize knowledge-intensive activities (Rammer et al. 2009). Many empirical studies have highlighted that large firms have a higher propensity to cooperate because they have a high absorptive capacity (e.g. Faems et al, 2010; López, 2008). However, it should be noted that this greater absorptive capacity comes mainly from their greater R&D (e.g. Ebersberger and Herstad, 2013).

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Correspondence to Manuel Guisado-Tato.

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Guisado-González, M., González-Blanco, J., Coca-Pérez, J.L. et al. Assessing the relationship between R&D subsidy, R&D cooperation and absorptive capacity: an investigation on the manufacturing Spanish case. J Technol Transf 43, 1647–1666 (2018). https://doi.org/10.1007/s10961-017-9579-7

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