Technological opportunities and innovation performance: evidence from Polish manufacturing firms

Main Article Content

Tomasz Kijek
Elżbieta Skrzypek

Abstract

Technological opportunity is a concept that is attracting attention from scholars and practitioners in the fields of economics and the management of innovation. In general, technological opportunities refer to the contribution of external knowledge to the innovation activities of firms in a given industry. Although the role of external knowledge has been discussed in detail in the open innovation literature, there is still a challenge: how to operationalize technological opportunities and measure their impact on firms’ innovation performance. In order to reduce this gap in the literature, our study aims at analysing the effects of technological opportunities on the output of the innovation process. Our empirical research is based on micro-data from the Polish Community Innovation Survey. The sample consists of 1979 manufacturing firms. We use the linear regression to estimate the relationship in which the share of innovative product sale is a function of a set of technological opportunity variables. These variables refer to two distinct measures of technological opportunities, i.e. the contribution of external knowledge to innovation activity and the propensity to collaboration on innovation. Our results show that inter-firm differences in technological opportunities explain inter-firm variation in innovation outcome. Moreover, we do not find any moderating impact from the absorptive capacity on the relationship between technological opportunities and innovation performance.

Keywords: technological opportunities, external knowledge, innovation, absorptive capacity.

Downloads

Download data is not yet available.

Article Details

How to Cite
Kijek, T., & Skrzypek, E. (2017). Technological opportunities and innovation performance: evidence from Polish manufacturing firms. New Trends and Issues Proceedings on Humanities and Social Sciences, 3(4), 69–76. https://doi.org/10.18844/prosoc.v3i4.1609
Section
Articles

References

Brenni, P. (2007). Uranium glass and its scientific uses. B. Sci. Instrum. Soc. 92,34-39.

Deguchi, R., Onodera, M. & Namikawa, H. (2012). Green fluorescent protein (GFP)-like substance in the hydrozoan jellyfish Cytaeis uchidae: Examination of timing and localization of its expression and utilization for biological education. Bull. Miyagi Univ. Edu.. 47, 95-100, (in Japanese).

Japan Radioisotope Association (2009). The 2007 recommendations of the international commission on radiological protection. TKY: Maruzen Publish., (in Japanese).

Kohno, T., & Nakano, S. (2011). Observations of calcite birefringence with a laser pointer. Jour. Geol. Soc. Japan, 117(8), 472-475, (in Japanese).

Kohno, T., Taga, M. & Yamashita, N. (2010). Photoluminescence of gypsum var. selenite from the Jirantai Saline Lake, Inner Mongolia, China. Chikyu Kagaku (Earth Science)(Assoc. Geolog. Collab. Jpn.), 64(6), 235-240, (in Japanese).

Kohno, T., Zaitsu, C., Nakano, S. & Yamashita, N. (2013). Observations of color images due to birefringence using a calcite crystal. Chikyu Kagaku (Earth Science) (Assoc. Geolog. Collab. Jpn.), 67(6), 215-220, (in Japanese).

Schneider, S., Kocher, D.C., Kerr, G.D., Scofield, P.A., O'Donnell, F.R., Mattsen, C.R., ...Wiblin, C. (2001). Glassware, Chap. 3.13, In Systematic radiological assessment of exemptions for source and byproduct materials. WA: U.S.Nuclear Regulatory Commission Office of Nuclear Regulatory Research, 3・217-3・229.

Shimada, H. (1938). A constituent of the Fraxinus Siebodiama Blume. Yakugaku-zassi (J. Pharmaceutical Soc. Jpn.), 58, 636-638, (in Japanese).

Shimada, H. (1940). Constituents of the bark of the Fraxinus species (Oleaceae). Yakugaku-zassi (J. Pharmaceutical Soc. Jpn.), 60, 508-510, (in Japanese).

Shimada, H. (1952a). Constituents of the bark of the Fraxinus species (Oleaceae). â…¢. Fraxinus Spaethiana, F. intermedia and others. Yakugaku-zassi (J. Pharmaceutical Soc. Jpn.), 72, 63-65, (in Japanese).

Shimada, H. (1952b). Constituents of the bark of the Fraxinus species (Oleaceae). â…£. Fraxinus borealis Nakai, F. longicuspis S. et Z., etc.. Yakugaku-zassi (J. Pharmaceutical Soc. Jpn.), 72, 498-500, (in Japanese).

Sideke A. & Yamashita, N. (2003). Synthesis of fluorescent salt. Buturi Kyoiku (J. Phys. Edu. Soc. Jpn.), 51 (1), 1-5, (in Japanese).

Taga, M., Kohno, T. & Nakano, S. (2015). Teaching tools of calcite birefringence with use of luminescence under purple laser light excitation. Chigaku Kyoiku (J. Jpn. Soc. Earth Sci. Edu.), 68 (1), 1-12, (in Japanese).

Taga, M., Kono, T. & Yamashita, N. (2011). Photoluminescence properties of gypsum. J. Miner. Petrol. Sci., 106, 169-174.

Toyama, T. & Asai, T. (2011). Synthesis of CaCO3 phosphors and observation of their emission spectra. Kagaku to Kyoiku (Chem. & Edu.)(Jpn. Chem. Soc.), 59(3), 148-151, (in Japanese).

UNSCEAR (2010). Sources and Effects of Ionizing Radiation. UNSCEAR 2008 Report: Volume I. NY: UNSCEAR.

Yamashita, N., Sidike A. & Nakagawa, T. (2001). Verification of teaching tools "black Light" and "florescent materials" on the market. Buturi Kyoiku (J. Phys. Edu. Soc. Jpn.), 49(6), 532-536, (in Japanese).

Yoshioka T. & Mostofa, K.M.G. (2010). Dynamics of dissolved organic matter in Lake Biwa, Lake Baikal and their watersheds. Humic Subst. Res. (J. Jpn. Humic Subst. Soc.), 7,5-14, (in Japanese)