| 671 - 673 |
Industrial energy-analysis and management: A European perspective
Grubbstrom RW, Hammond GP, Probert SD, Reis AJPS |
| 675 - 700 |
Industrial energy analysis, thermodynamics and sustainability
Hammond GP |
| 701 - 718 |
An attempt to introduce dynamics into generalised exergy considerations
Grubbstrom RW |
| 719 - 728 |
The efficiency of the rational use of energy
Schaumann G |
| 729 - 748 |
Optimal design of CHCP plants in the civil sector by thermoeconomics
Cardona E, Piacentino A |
| 749 - 762 |
Fuzzy thermoeconomic optimization of energy-transforming systems
Mazur V |
| 763 - 770 |
Consumption dynamics of primary-energy sources: The century of alternative energies
Matias JCD, Devezas TC |
| 771 - 780 |
Decomposition of manufacturing energy-use in IEA countries - How do recent developments compare with historical long-term trends?
Unander F |
| 781 - 794 |
Industrial energy-flow management
Lampret M, Bukovec V, Paternost A, Krizman S, Lojk V, Golobic I |
| 795 - 805 |
The externally-fired gas-turbine (EFGT-Cycle) for decentralized use of biomass
Kautz M, Hansen U |
| 806 - 816 |
Local learning-networks on energy efficiency in industry - Successful initiative in Germany
Jochem E, Gruber E |
| 817 - 827 |
Life-cycle assessment for energy analysis and management
de Haes HAU, Heijungs R |
| 828 - 841 |
Modelling and allocation of CO2 emissions in a multiproduct industry: The case of oil refining
Babusiaux D, Pierru A |
| 842 - 852 |
CO2 emissions of global metal-industries: The case of copper
Kuckshinrichs W, Zapp P, Poganietz WR |
| 853 - 862 |
Analysis of energy use and carbon losses in the chemical industry
Neelis M, Patel M, Bach P, Blok K |
