1. The knowledge mobility of Renewable Energy Technology. (2022). Persoon, P. G. J., ; Alkemade, F ; Bekkers, R. N. A., .
   In: Energy Policy.
   RePEc:eee:enepol:v:161:y:2022:i:c:s0301421521005358.

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2. The Knowledge Mobility of Renewable Energy Technology. (2021). R. N. A. Bekkers, ; P. G. J. Persoon, ; Alkemade, F.
   In: Papers.
   RePEc:arx:papers:2106.10474.

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1. A more serious issue is if the RoS dataset that we use, rather than our own additional data cleaning, is biased towards identifying scientific references more easily in recent patents, which is plausible. We address this in two ways. First of all, while reading patents manually for our own data cleaning described above, we pay specific attention to “false negatives”, that is, references that are in the patents but not in the RoS data. While we did find some instance of this, they were rare. Second, we used a more rigorous approach and decided to read all early patents of a specific technology in a given year. We chose Wind in 1875.
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2. Ahmadpoor, M. & Jones, B. F. (2017), ‘The dual frontier: Patented inventions and prior scientific advance’, Science 357(6351), 583–587.
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5. At this point, it is important to note that 1976 marks a important change in the quality of the data. Before this date, most citations to science are found in the body of the text, and the RoS confidence scores are generally low. After this date, most citations to science are found in the reference list, and the RoS confidence scores are high.
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6. Barbieri, N., Marzucchi, A. & Rizzo, U. (2020), ‘Knowledge sources and impacts on subsequent inventions: Do green technologies differ from non-green ones?’, Research Policy 49(2), 103901.

7. Cardwell, D. S. L. (1994), The Fontana history of technology, Fontana Press London.
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8. Compared to the cosine similarity networks of the main text, Fig. 7, the renewables-nuclear separation is even more extreme. At most only tiny fractions of nuclear-based paper citations are also cited by renewables and vice versa9. The largest edge is the one from Solar thermal to Solar PV. Roughly a quarter of all patents cited by Solar thermal has also been cited by Solar PV between 1976 and 2005. The share has even increased to 44% in the most recent 15 years. Conversely, only 3% of PV-cited papers are also cited by Solar thermal patents. But note that the total number of patents and citations of Solar PV is substantially larger than for Solar thermal. 9
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9. Cowan, R. (1990), ‘Nuclear power reactors: a study in technological lock-in’, The Journal of Economic History 50(3), 541–567.

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27. Meyer, M. (2000), ‘Does science push technology? patents citing scientific literature’, Research Policy 29(3), 409–434.

28. Microbiology 10.1016/ S0043-1354(02) 00188-4 Water Research (J) 16 16 Geothermal Experimentation and modelling of an innovative geothermal desalination unit 1999 Eng., Chem. 10.1016/ S0011-9164(99) 00133-2 Desalination (J) 10 28 Nuclear fission Fission of elements from pt to bi by high energy neutrons 1948 Physics, Nuclear 10.1103/PhysRev.73. 1135 Physical Review (J) 71 71 Nuclear fusion Fundamental limitations on plasma fusion systems not in thermodynamic equilibrium 1997 Physics, Multidis. 10.1063/1.872556 Physics of Plasmas (J) 38 38 All A low cost high efficiency solar cell based on dye sensitized colloidal tio2 films 1991 Chem., Multidis. 10.1038/353737a0 Nature (J) 225 225 Table 5: Most cited papers by all technologies and by technology type. Column (7) and (8) show the number of citations received within the technology group and from all technologies, respectively.
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32. Nuclear S&T Nuclear fusion 1976−1990 1991−2005 2006−2019 534 663 2434 Chem., Physical Instrumentation Fluids and Plasmas Physics, Nuclear Figure 6: The three periods are 1976-90, 1991-2005, 2006-19. Colors are consistent across charts, except black which is “all others”. The numbers on the top horizontal axis are the total numbers of citations made to papers during the period.
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33. Oldest patent Avg year patent Oldest paper Avg year paper Avg lag Solar PV 1936 2012.02 1863 1999.30 12.72 Wind 1960 2012.16 1878 1999.27 12.89 Solar thermal 1961 2008.63 1874 1994.72 13.91 Ocean power 1937 2013.17 1923 1998.88 14.29 Hydroelectric 1987 2013.39 1838 1993.70 19.69 Geothermal 1967 2010.46 1949 1994.57 15.89 Nuclear fission 1950 1994.66 1902 1980.62 14.05 Nuclear fusion 1959 2006.09 1883 1987.62 18.47 All 1936 2011.27 1838 1998.25 13.02 Table 4: Age characteristics of papers and LCET patents which cite scientific papers. Columns show (1) the grant year of the oldest patent, (2) average age of patents, (3) publishing year of oldest cited paper, (4) average age of cited papers and (7) average citation lag.
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34. Orsatti, G. (2019), Public R&D and green knowledge diffusion: Evidence from patent citation data, Groupe de Recherche en Economie Théorique et Appliquée (GREThA), Cahiers du GREThA 2019-17.

35. Paper title Year WoS field DOI Journal/Conference # cit. (techn) # cit. (total) Solar PV A low cost high efficiency solar cell based on dye sensitized colloidal TiO2 films 1991 Chem., Multidis. 10.1038/353737a0 Nature (J) 224 225 Wind Wind energy handbook 2001 Energy & Fuels 29 29 Solar thermal Thermochemical processes for the production of hydrogen from water 1976 Chem., Physical 19 29 Ocean power Application of solar and wave energies for long range autonomous underwater vehicles 2002 Energy & Fuels 10.1163/ 156855302317413736 Advanced Robotics (J) 12 13 Hydroelectric Literature review efficacy of various disinfectants against Legionella in water systems 2002 Biotechn. & Appl.
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48. Thermodynamics Nuclear fission 1976−1990 1991−2005 2006−2019 597 640 1858 Chem., Physical Eng.: Elec Materials sci.
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49. Tijssen, R. J. (2001), ‘Global and domestic utilization of industrial relevant science: patent citation analysis of science–technology interactions and knowledge flows’, Research Policy 30(1), 35–54.

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56. We looked at all 52 patents, and confirmed that none of them had a citation to a scientific paper. Incidentally, it is striking to compare the 1875 patents with the 20th century ones. Early patents, indeed, do not rely very much on academic knowledge, but instead describe the successful experiments of independent inventors at improving mechanical designs for windmills. In contrast, the 20th century patents do rely on academic knowledge, with clear references to knowledge in aerodynamics, electrical engineering, etc.
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