Technology status future

To understand market opportunities as they are evolving, the technology status of major components within current and future IGCC systems must be understood. 

Appleby A.J. (1996) Fuel cell technology Status and future prospects. Energy 21(7/8), 521-653. 

The Present and Future Technological Status of Enzymes, B. Wolnak... 

As the editor, 1 hope that the collection of above articles reflects the current status of this important held of microfluidics in a timely fashion, and this book becomes a helpful resource for readers, especially students, engineers, and even advanced non-specialist scientists who work outside of our held by providing a deep and thorough understanding of the mechanisms, technology and future promise of microfluidics for research and applications. 1 believe that the scope and the variety of topics covered in this volume will attract readers from different communities such as chemistry, physics, biology, medicine and engineering. 

Verma, R.K. Garg. S. Current status of drag delivery technologies and future directions. Pharm. Technol. 2001, 25. 1-14. 

Burke, A., and M. Arulepp. 2001. Recent developments in carbon-based electrochemical capacitors Status of the technology and future prospects. Electrochem Soc Proc 21 576. 

Verardi A, De Bari I, Ricca E, Calabrd V, (2011), Hydrolysis of lignoceUulosic biomass current status of processes and technologies and future perspectives . In Bioethanol, edited by Marco Aurelio Pinheiro Lima, Intech Publisher, ISBN 979-953-A307-007-9. 

It is the purpose of this paper to summarize in a necessarily brief and incomplete manner, the technological status of electric propulsion systems, and to discuss their current and future space-mission possibilities. 

Of these six, the first five concepts have been initially pursued at varying levels of effort within the United States based on the technology status and the ability of the concepts to meet national energy needs. Because of its limited technology base, further development of the MSR is not being pursued in the United States, but may be pursued by other countries. However, as these concepts continue to be developed, it is anticipated that future research within the United States will become focused on only one or two of the most promising concepts. 

Each of these reactor concepts is discussed further in the following sections, which include a brief discussion of the design, an assessment of how each concept is expected to meet the Generation IV goals, the current status of the technologies, and future research and development needs to bring the technologies to fruition. 

Korotcenkov G, 8tetter JR (2011) Chemical gas mixture analysis and the electronic nose current status, future trends. In Korotcenkov G (ed) Chemical sensors comprehensive sensor technologies, vol 6, Chemical sensors applications. Momentum, New York, pp 1-56... 

Technology status. Only limited research and development (R D) is required for some fuel cycles. In other cases, the R D requirements are very large. This impacts the practical choices for future reactors. 

State-of-the-Art and Future Directions Table 2 summarizes the major SOFC developers, the relative country, technology, as well as the results achieved. As for the other fuel cell technologies, most of the developers are located in US, Europe and Japan. Table 2. Main manufacturers and technology status (US DOE 2004) ... 

Buehler, C., Stoeckli, K. and Auer, M. (2001). The integration of single molecule detection technologies into miniturized drug screening Current status and future perspectives. In New Trends in Fluorescence Spectroscopy (Valeur, B. and Brochon, J. C., eds.). Springer, Berlin, pp. 331-79. 

Hagey, G., Marinetti, D., Mueller, E.A., Status of fuel cell system development/Commercialisation and future systems energy, environmental, and economic benefits, pre-prints International Conference, Next Generation Technologies for Efficient Energy End Uses and Fuel Switching, Dortmund, 7-9. April 1992. 

The goal of this section was to outline current differences between the implementation of process analytics in the chemical and pharmaceutical industry, specifically in the areas of business model, technology and regulations. The reader of this chapter should be aware that this status quo is changing rapidly in the pharmaceutical industry due to a changing business cUmate, combined with a more technology-aware regulatory environment in the major pharmaceutical markets. The authors of this chapter would expect that future editions of this book would see major revisions to this comparison of the industries. 

In this chapter, we review the current status of doping of SiC by ion implantation. Section 4.2 examines as-implanted depth profiles with respect to the influence of channeling, ion mass, ion energy, implantation temperature, fluence, flux, and SiC-polytype. Experiments and simulations are compared and the validity of different simulation codes is discussed. Section 4.3 deals with postimplant annealing and reviews different annealing concepts. The influence of diffusion (equilibrium and nonequilibrium) on dopant profiles is discussed, as well as a comprehensive review of defect evolution and electrical activation. Section 4.4 offers conclusions and discusses technology barriers and suggestions for future work. 

Kimg P, Razeghi M (2000) Ill-Nitride wide bandgap semiconductors, a simvey of the cimrent status and future trends of the material and device technology. Opto-Electronics Review 8(3), 201-239... 

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