Page 237 - Advanced Gas Turbine Cycles
P. 237

Subject Index                         199

        IS0 firing temperature, 47            Multi-step cooling, 52-54,  59, 7.5, 78-81
        Isothermal compression, 93            Multiple PO combustion plant,  163
        ISTIG plant, 98,  103, 105
           see intercooled steam injection turbine   Natural gas reforming, 133-134
               plants                         Natural gas-fired plants,  164
                                              NDCW see non-dimensional  compressor work
        Joint heating of gas turbine and steam turbine   NDHT see non-dimensional  heat transferred
               plants, 112                    NDNW see non-dimensional  net work
        Joule-Brayton  cycle,  1,  3, 20, 28   NDTW see non-dimensional  turbine work
        Joule-Brayton  (JB) cycle             Nitrogen,  133, 153
          air standard, 28-29,  46            Non-carbon fuel plants, 133, 153-155
           efficiency, 9, IO                  Non-dimensional  heat supplied, 41
          exergy flux, 20-22                  Non-dimensional  net work output, 40
          power generation  1-2,  3          Nondimensional.. .
                                                compressor work (NDCW), 35, 124
        Linearised analyses, 42                 heat transferred  (NDHT), 3, 122
        Liquefaction,  134                      net work (NDNW), 35-37,40,  I23
        Liquid fuel, 23                         turbine work (NDTW), 35, 124
        Live steam pressure,  122            Notation, turbine cooling, 184
        Liverpool University plant (CHP), 180- 181   Novel gas turbine cycles, 131  - 164
        Loss in efficiency, 58, 1 IO         Nozzle guide vane rows, 60,63, 65,73-75,  78
        Lost work,  16, 17-18,  20-21
        Lower heating value thermal efficiency,  124   Open circuit gas turbine plant, 2, 6, 13, 24, 39,
                                                     43
        Mach numbers, 62                     Open circuit gas turbindclosed steam cycle, 1 13
        Mainstream gas mass flow, 71 -72     Open cooled blade row, 61,62
        Maintenance costs,  19 1              Open cooling, 59-65,  186
        Massflow,42,71, 117-118               Operating conditiondranges,  180-  18 1
        Mass flow ratio,  118                Operational costs,  19 1 - 192
        Matched CHP plant with WHB,  171     Operation and maintenance,  192
        Matched CHP plant with WHR,  171     Optimum pressure ratios, 44-45,  123- 126
        Matched plants,  171                 Overall cooling effectiveness,  185
        Matiant cycle,  134-135,  158-160    Overall efficiency and specific work, 66, 78, 8 I
        Maximum combined cycle efficiency,  126   Overall efficiency of CCGT plant,  12 I,  124
        Maximum efficiency, 35, 38. 66, 82, 126   Overall efficiency
        Maximum efficiency,  126                closed circuit power plants, 6
        Maximum (reversible) work,  17          cogeneration plants,  167- 169
        Maximum specific work, 35               combined cycles,  I 12, 1 18. 128. 129, 130
        Maximum work,  15, 22                   electricity pricing,  189- 190
        Maximum work output. 22, 24-25          fired combined cycles,  1 16
        Maximum temperature, 47                 open circuit plants, 43-46
        Mean temperatures 8-9,  21              open circuit power plants, 6-7
        Methane,  141-143,  145, 192            recuperation,  92, 149- 151
        Mixing of cooling air with mainstream flow, 61   steam injection turbine plants,  85, 86
        Modifications                           steam-thermo-chemical  recuperation, 33,
          fuels,  133-135,  148-153                  141, 143, 147
          oxidants,  134-135,  155-161          three step cooling, 79-81
          turbine cycles, 9-  1 1               water injection evaporative turbines,
        Modified polytropic efficiency, 59           94-98
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