Hydrogen storage and transportation

Naphthalene itself is solid at ambient temperatures (m.p. 80.5°C) but is dissolved easily in aromatic compounds such as toluene (refer Table 13.1) [10,12], so that the oily mixture can be handled as a "naphthalene oil." The naphthalene oil is catalytically hydrogenated to decalin and methylcyclohexane simultaneously. Decalin and methylcyclohexane are converted into hydrogen and naphthalene oil again by dehydrogenation catalysis. From the handling viewpoint, the naphthalene oil may be deemed as a preferential and practical material for hydrogen storage and transportation. 

Exergetic Analysis of Organic Chemical Hydrides as the Media for Hydrogen Storage and Transportation... 

Zaidman, B., Wiener, H. and Sasson, Y. (1986) Formate salts as chemical carriers in hydrogen storage and transportation. Int. ]. Hydr. Energy, 11, 341. 

Develop, validate, and transition to a manufacturing environment, commercially ready, nondestructive testing technologies for hydrogen storage and transport systems that may be used by an unskilled or semiskilled... 

Materials suitable for hydrogen storage and transporting are being intensively searched for. Experimental research work demands development of adequate models. This helps to specify physical-chemical ideas about hydrogen interaction with solids, to discover the limiting factors and to reduce significantly the costs on experimental research by means of numerical simulation for different parameters and experimental conditions. Due to lack of space we mention only papers [1-3] which deal with this article s topic. 

Hydrogen futures emerging technologies for hydrogen storage and transport... 

Complete a Monte Carlo sensitivity analysis of hydrogen storage and transportation costs. 

NAKATSUGAWA, I., LUO, A., Recent Process of Hydrogen Storage and Transportation Technologies in North America, Hydrogen and Clean Energy (Int. Symp., Tokyo, 1995), NEDO (1995) 275-278. 

The commercial provision of energy worldwide has turned into a very complex structure, not limited by national boundaries. Hydrogen storage and transport technologies have to be developed to fit these structures. Relevant issues and R D activities are summarized below. 

ZAIDMAN, B., WIENER, H., SASSON, Y., Formate Salts as Chemical Carriers in Hydrogen Storage and Transportation, Int. J. Hydrogen Energy 11 (1986) 341-347. 

This section outlines the equations used in the model to determine the costs associated with on-site hydrogen storage and transportation. While several of these equations are from the Amos study, others were derived by the modeling team or other sources, as indicated. When using Amos work, we included the cost of capital financing, which Amos did not. 

Cacciola, G., Giordano, N., Restuccia, G. (1984). Cyclohexane as a liquid phase carrier in hydrogen storage and transport. Journal of Hydrogen Energy, 9, 411—419. 

Itoh, N., Watanabe, S., Kawasoe, K., Sato, T., Tsuji, T. (2006). A membrane reactor for hydrogen storage and transport system using cyclohexane-methylcyclohexane mixtures. Desalination, 234, 261. 

Figure 7.5.1 Concept of the new hydrogen storage and transportation system...

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