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ASME PTC 46 2015

ASME PTC 46 2015

$98.04

ASME PTC-46 Overall Plant Performance

Published By Publication Date Number of Pages
ASME 2015 306
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This Code applies to any plant size. It can be used to measure the performance of a plant in its normal operating condition, with all equipment in a clean and fully functional condition. This Code provides explicit methods and procedures for combined cycle power plants and for most gas, liquid, and solid fueled Rankine cycle plants. There is no intent to restrict the use of this Code for other types of heat cycle power plants, providing the explicit procedures can be met. For example, the performance equations and test methods herein are applicable to the steam cycle portion of a solar plant, or of a nuclear plant steam cycle. Refer to ASME PTC 47 for power block thermal performance test procedures associated with an IGCC plant (Integrated Gasification Combined Cycle). This Code does not apply to component testing, for example, gas turbines (ASME PTC 22) or steam turbines (ASME PTC 6 or ASME PTC 6.2) or other individual components. To test a particular power plant or cogeneration facility in accordance with this Code, the following must be met: (a) a means must be available to determine, through either direct or indirect measurements, all of the heat inputs entering the test boundary and all of the electrical power and secondary outputs leaving the test boundary; (b) a means must be available to determine, through either direct or indirect measurements, all of the parameters to correct the results from the test to the base reference condition; (c) the test result uncertainties should be less than or equal to the uncertainties given in subsection 1-3 for the applicable plant type; and (d) the working fluid for vapor cycles must be steam. This restriction is imposed only to the extent that other fluids may require measurements or measurement methods different from those provided by this Code for steam cycles. Tests addressing other power plant performance-related issues are outside the scope of this Code. These include the following: (a) emissions tests: testing to verify compliance with regulatory emissions levels (e.g., airborne gaseous and particulate, solid and wastewater, noise, etc.), or required for calibration and certification of emission-monitoring systems. (b) operational demonstration tests: the various standard power plant tests typically conducted during startup, or periodically thereafter, to demonstrate specified operating capabilities (e.g., minimum load operation, automatic load control and load ramp rate, fuel switching capability, etc.). (c) reliability tests: tests conducted over an extended period of days or weeks to demonstrate the capability of the power plant to produce a specified minimum output level or availability. The measurement methods, calculations, and corrections to design conditions included herein may be of use in designing tests of this type; however, this Code does not address this type of testing in terms of providing explicit testing procedures or acceptance criteria.

PDF Catalog

PDF Pages PDF Title
4 CONTENTS
7 NOTICE
8 FOREWORD
10 ASME PTC COMMITTEE ROSTER
11 CORRESPONDENCE WITH THE PTC COMMITTEE
13 INTRODUCTION
14 Section 1 Object and Scope
1-1 OBJECT
1-2 SCOPE
1-3 TEST UNCERTAINTY
15 1-4 REFERENCES
Tables
Table 1-3-1 Largest Allowable Test Uncertainties
17 Section 2 Definitions and Descriptions of Terms
2-1 DEFINITIONS OF CORRECTION FACTORS
2-2 TERMS
18 Table 2-1.1-1 Symbols
Table 2-1.1-2 Subscripts
21 Section 3 Guiding Principles
3-1 INTRODUCTION
23 Table 3-1.4.1-1 Guidance for Establishing Permissible Deviations From Design (All ± Values)
24 Figures
Fig. 3-1.5-1 Generic Test Boundary
Fig. 3-1.5-2 Typical Steam Plant Test Boundary
25 Fig. 3-1.5-3 Typical Combined Cycle Plant Test Boundary
27 3-2 TEST PLAN
28 Table 3-1.10-1 Design, Construction, and Start-up Considerations
29 3-3 TEST PREPARATIONS
30 3-4 CONDUCT OF THE TEST
Table 3-4-1 Typical Pretest Stabilization Periods
Table 3-4-2 Recommended Minimum Test Run Durations
34 3-5 CALCULATION AND REPORTING OF RESULTS
Fig. 3-4.4.3-1 Three Post-test Cases
36 Section 4 Instruments and Methods of Measurement
4-1 GENERAL REQUIREMENTS
40 4-2 PRESSURE MEASUREMENT
43 Fig. 4-2.6.2-1 Five-Way Manifold
44 4-3 TEMPERATURE MEASUREMENT
45 Fig. 4-2.6.2-2 Water Leg Correction for Flow Measurement
46 Table 4-2.6.2-1 Units and Conversion Factor for Water Leg Correction for Flow Measurement
47 Fig. 4-3.3.2.1-1 Four-Wire RTDs
48 Fig. 4-3.3.2.2-1 Three-Wire RTDs
49 Fig. 4-3.6.2-1 Flow-Through Well
52 4-4 HUMIDITY MEASUREMENT
54 4-5 FLOW MEASUREMENT
55 Table 4-5.1-1 Recommendations for Differential Pressure Meters for Different Applications
57 Table 4-5.3.1-1 Units and Conversion Factor for Mass Flow Through a Differential Pressure Class Meter
58 Table 4-5.3.1-2 Summary Uncertainty of Discharge Coefficient and Expansion Factor
61 4-6 PRIMARY HEAT INPUT MEASUREMENT
62 4-7 ELECTRICAL GENERATION MEASUREMENT
63 Table 4-7.3-1 Metering Method Restrictions Summary
64 Fig. 4-7.3.1-1 Three-Wire Metering System
65 Fig. 4-7.3.2-1 Four-Wire Metering System
69 4-8 GRID FREQUENCY
4-9 DATA COLLECTION AND HANDLING
71 Section 5 Calculations and Results
5-1 FUNDAMENTAL EQUATIONS
5-2 MEASURED PLANT POWER AND HEAT INPUT TERMS IN THE FUNDAMENTAL EQUATIONS
72 Table 5-1-1 Summary of Additive Correction Factors in Fundamental Performance Equations
73 Table 5-1-2 Summary of Multiplicative Correction Factors in Fundamental Performance Equations
74 5-3 PARTICULARIZING FUNDAMENTAL PERFORMANCE EQUATIONS TO SPECIFIC CYCLES AND TEST OBJECTIVES
76 5-4 DISCUSSION OF APPLICATION OF CORRECTION FACTORS
Table 5-3.4-1 Examples of Typical Cycles and Test Objectives — Corresponding Specific Performance Equations
79 Fig. 5-4.1.5-1 Typical Test Boundary for a Power Plant Requiring Application of Heat Sink Correction Factor, 5A or w5A
80 Fig. 5-4.1.5-2 Typical Test Boundary for a Power Plant Requiring Application of Heat Sink Correction Factor, 5B or w5B
81 Fig. 5-4.1.5-3 Typical Test Boundary for a Power Plant Requiring Application of Heat Sink Correction Factor, 5C or w5C
83 5-5 SPECIAL CONSIDERATIONS OF PERFORMANCE EQUATIONS AS APPLIED TO COMBINED CYCLES
85 Table 5-5.3-1 Required Test Series for Phased Construction Combined Cycle Plants
88 5-6 SPECIAL CASE WHEN PIPING IS OUTSIDE THE TEST BOUNDARY
5-7 SPECIAL CONSIDERATIONS AS APPLIED TO STEAM TURBINE PLANTS
89 Fig. 5-7.3-1 Output Versus Throttle Steam Flow
90 Fig. 5-7.4-1 Typical Test Boundary for a Reheat Rankine Steam Cycle Power Plant
91 Section 6 Report of Results
6-1 GENERAL REQUIREMENTS
6-2 EXECUTIVE SUMMARY
6-3 INTRODUCTION
6-4 CALCULATIONS AND RESULTS
92 6-5 INSTRUMENTATION
6-6 CONCLUSIONS
6-7 APPENDICES
93 Section 7 Test Uncertainty
7-1 INTRODUCTION
7-2 PRETEST UNCERTAINTY ANALYSIS
7-3 POST-TEST UNCERTAINTY ANALYSIS
7-4 INPUTS FOR AN UNCERTAINTY ANALYSIS
94 NONMANDATORY APPENDICES
NONMANDATORY APPENDIX A SAMPLE CALCULATIONS, COMBINED CYCLE COGENERATION PLANT WITHOUT DUCT FIRING
A-1 GENERAL
A-2 CYCLE DESCRIPTION
A-3 TEST BOUNDARY DESCRIPTION
A-4 REFERENCE AND MEASURED CONDITIONS
A-5 MEASURED RESULTS
95 Table A-4-1 Reference and Measured Conditions
Table A-5-1 Measured Results
A-5.1 Fundamental Equations Refer to Eqs. 5Ã3Ã1 and 5Ã3Ã2
A-6 REQUIRED CORRECTIONS AND CORRECTION FACTORS
A-7 CORRECTIONS NOT REQUIRED
A-8 CORRECTION CURVES AND FITTED EQUATIONS
96 Table A-6-1 Required Corrections and Correction Factors
Table A-7-1 Correction Factors Not Required
97 A-9 DISCUSSION
98 Table A-9-1 Correction Factors
100 NONMANDATORY APPENDIX B SAMPLE CALCULATIONS, COMBINED CYCLE COGENERATION PLANT WITH DUCT FIRING
B-1 GENERAL
B-2 CYCLE DESCRIPTION AND UNIT DESCRIPTION
B-3 TEST BOUNDARY DESCRIPTION
B-4 TABLE OF REFERENCE CONDITIONS
101 Fig. B-2-1 Cycle Diagram and Test Boundary
102 Table B-4-1 Reference Conditions
B-5 REQUIRED CORRECTION FACTORS
B-6 CORRECTION CURVES AND FITTED EQUATIONS
103 Table B-5-1 Required Correction Factors
Table B-5-2 Measured Data
105 Fig. B-6-1 Correction to Heat Input for Thermal Efflux
106 Fig. B-6-2 Correction to Heat Input for Gas Turbine Power Factor
107 Fig. B-6-3 Correction to Heat Input for Steam Turbine Power Factor
108 Fig. B-6-4 Correction to Heat Input for HP Blowdown
109 Fig. B-6-5 Correction to Heat Input for Excess Cycle Makeup
110 Fig. B-6-6 Correction to Heat Input for Steam Turbine Condenser Pressure
111 Fig. B-6-7 Correction to Heat Input for Measured Power Different Than Design
112 Fig. B-6-8 Correction to Heat Rate for Inlet Air Temperature
113 Fig. B-6-9 Correction to Heat Rate for Ambient Pressure
114 Fig. B-6-10 Correction to Heat Rate for Fuel Temperature
115 Fig. B-6-11 Correction to Heat Rate for Fuel Analysis
117 B-7 SAMPLE CALCULATIONS AND RESULTS
118 Table B-7-1 Peformance Corrections
119 NONMANDATORY APPENDIX C SAMPLE CALCULATIONS, COMBINED CYCLE COGENERATION PLANT WITHOUT DUCT FIRING
C-1 INTRODUCTION
C-2 TEST BOUNDARY
C-3 TEST REFERENCE CONDITION
C-4 CORRECTION FACTORS
120 C-5 CORRECTED CURVES AND FITTED EQUATIONS
C-6 SAMPLE CALCULATION AND RESULTS
C-7 DISCUSSION OF RESULTS
121 Fig. C-1-1 Test Boundary for Combined Cycle/Cogeneration Plant With External Cooling Source
122 Fig. C-5-1 Inlet Temperature Correction Factors
123 Fig. C-5-2 Inlet Pressure Correction Factors
124 Inlet
125 Fig. C-5-4 Net Process Steam Energy Correction Factors
126 Fig. C-5-5 Blowdown Flow Correction Factors
127 Fig. C-5-6 Condenser Cooling Temperature Correction Factors
128 Table C-4-1 Applicable Correction Factors
Table C-5-1 Inlet Temperature Correction Factors
Table C-5-2 Barometric Pressure Correction Factors
129 Table C-5-3 Inlet Relative Humidity Correction Factors
Table C-5-4 Net Process Steam Energy Correction Factors
130 Table C-5-5 Blowdown Flow Correction Factors
Table C-5-6 Condenser Cooling Temperature Correction Factors
Table C-6-1 Measured Data
Table C-6-2 Calculated Values
Table C-6-3 Correction Factor Values
Table C-6-4 Calculated Values
131 NONMANDATORY APPENDIX D REPRESENTATION OF CORRECTION FOR DIFFERENT HEAT SINK TEMPERATURE THAN GAS TURBINE AIR INLET TEMPERATURE Delta5 OR omega5, IF NECESSARY, FOR A TYPICAL COMBINED CYCLE PLANT
D-1 GENERAL
132 Fig. D-1-1 Gas Turbine Inlet Temperature Correction Curve
133 Fig. D-1-2 Inlet Air Condition Difference Between Cooling Tower and Gas Turbine
134 NONMANDATORY APPENDIX E SAMPLE CALCULATION OF A COAL-FIRED SUPERCRITICAL CONDENSING STEAM TURBINE BASED PLANT
E-1 CYCLE DESCRIPTION
E-2 TEST BOUNDARY DESCRIPTION
E-3 GENERAL DESCRIPTION OF TEST CASES, MODELS, AND CORRECTIONS
135 E-3.1 Case 1 Sample Calculation: Specified Measured Output
E-3.1.1 Corrected Output.
E-3.1.2 Corrected Fuel Energy Input and Corrected Heat Rate.
136 Table E-3.1-1 Example of Test Boundary Conditions for Supercritical Unit — Case 1
137 Table E-3.1-2 Case 1 Measured Data
139 Table E-3.1.1-1 Case 1 Corrected Test Results
140 E-3.2 Case 2 Sample Calculation: Specified Steam Flow
141 Table E-3.2-1 Example of Test Boundary Conditions for Supercritical Unit — Case 2
142 Table E-3.2-2 Case 2 Measured Test Data
145 E-3.2.1 Corrected Output.
E-3.2.2 Corrected Fuel Boiler Output and Corrected Heat Rate.
146 Table E-3.2.1-1 Case 2 Corrected Test Results
148 Fig. E-3.3-1 Change in Heat Input vs. Process Steam Flow
Fig. E-3.3-2 Change in Heat Input vs. Process Steam Temperature
E-3.3 Case 1 Correction Curves
E-3.4 Case 2 Correction Curves
E-3.5 Design Cases and Test Runs
149 Fig. E-3.3-3 Change in Heat Input vs. Steam Turbine Generator Power Factor
Fig. E-3.3-4 Change in Heat Input vs. Ambient Temperature
150 Fig. E-3.3-5 Change in Heat Input vs. Relative Humidity
Fig. E-3.3-6 Change in Heat Input vs. River Water Temperature
151 Fig. E-3.3-7 Change in Heat Input vs. Auxiliary Loads
Fig. E-3.3-8 Change in Heat Input vs. Change in Net Output
152 Fig. E-3.4-1 Change in Net Output vs. Process Steam Flow
Fig. E-3.4-2 Change in Net Output vs. Process Steam Pressure
153 Fig. E-3.4-3 Change in Net Output vs. Process Steam Temperature
Fig. E-3.4-4 Change in Net Output vs. Steam Turbine Generator Power Factor
154 Fig. E-3.4-5 Change in Net Output vs. Makeup Temperature
Fig. E-3.4-6 Change in Net Output vs. River Water Temperature
155 Fig. E-3.4-7 Change in Net Output vs. Change in Throttle Flow
Fig. E-3.4-8 Change in Boiler Output vs. Process Steam Flow
156 Fig. E-3.4-9 Change in Boiler Output vs. Change in Throttle Flow
157 Fig. E-3.5-1 Design Case 1 (U.S. Customary Units)
158 Fig. E-3.5-1M Design Case 1 (SI Units)
159 Fig. E-3.5-2 Test Run 1A (U.S. Customary Units)
160 Fig. E-3.5-2M Test Run 1A (SI Units)
161 Fig. E-3.5-3 Test Run 1B (U.S. Customary Units)
162 Fig. E-3.5-3M Test Run 1B (SI Units)
163 Fig. E-3.5-4 Test Run 1C (U.S. Customary Units)
164 Fig. E-3.5-4M Test Run 1C (SI Units)
165 Fig. E-3.5-5 Design Case 2 (U.S. Customary Units)
166 Fig. E-3.5-5M Design Case 2 (SI Units)
167 Fig. E-3.5-6 Test Run 2A (U.S. Customary Units)
168 Fig. E-3.5-6M Test Run 2A (SI Units)
169 Fig. E-3.5-7 Test Run 2B (U.S. Customary Units)
170 Fig. E-3.5-7M Test Run 2B (SI Units)
171 Fig. E-3.5-8 Test Run 2C (U.S. Customary Units)
172 Fig. E-3.5-8M Test Run 2C (SI Units)
173 NONMANDATORY APPENDIX F SAMPLE UNCERTAINTY CALCULATION: COMBINED CYCLE PLANT WITHOUT DUCT FIRING
F-1 INTRODUCTION
F-2 CYCLE DESCRIPTION AND UNIT DISPOSITION
F-3 TEST BOUNDARY DESCRIPTION
174 Fig. F-3-1 Combined Cycle Plant Air-Cooled Condenser-Process Flow Diagram
175 F-4 MEASUREMENTS
F-5 REFERENCE CONDITIONS
F-6 MEASURED CONDITIONS
F-7 FUNDAMENTAL EQUATIONS AND APPLICABLE CORRECTIONS
176 Table F-4-1 Performance Test Measurements and Instruments
177 Table F-5-1 Performance Reference Conditions
178 Table F-6-1 Performance Test 1 Measured Conditions
179 Table F-6-2 Performance Test 2 Measured Conditions
180 Table F-6-3 Performance Test 3 Measured Conditions
181 Table F-6-4 Performance Test 4 Measured Conditions
Table F-6-5 Evaporative Cooler Test Averages
182 Table F-7-1 Summary of Additive Correction Factors
183 Table F-7-2 Summary of Multiplicative Correction Factors
184 F-8 CORRECTION CURVES AND POLYNOMIAL EQUATIONS
F-9 SAMPLE CALCULATIONS AND CORRECTED TEST RESULT
F-10 UNCERTAINTY ANALYSIS APPROACH
F-11 UNCERTAINTY ANALYSIS GENERAL EQUATIONS AND TERMS
185 Fig. F-8-1 Correction to Power for Gas Turbine Generator Power Factor (U.S. Customary Units)
186 Fig. F-8-1M Correction to Power for Gas Turbine Generator Power Factor (SI Units)
187 Fig. F-8-2 Correction to Power for Steam Turbine Generator Power Factor (U.S. Customary Units)
188 Fig. F-8-2M Correction to Power for Steam Turbine Generator Power Factor (SI Units)
189 Fig. F-8-3 Correction to Power for ACC Inlet Dry Bulb Temperature (U.S. Customary Units)
190 Fig. F-8-3M Correction to Power for ACC Inlet Dry Bulb Temperature (SI Units)
191 Fig. F-8-4 Correction to Power for Ambient Dry Bulb Temperature (U.S. Customary Units)
192 Fig. F-8-4M Correction to Power for Ambient Dry Bulb Temperature (SI Units)
193 Fig. F-8-5 Correction to Heat Rate for Ambient Dry Bulb Temperature (U.S. Customary Units)
194 Fig. F-8-5M Correction to Heat Rate for Ambient Dry Bulb Temperature (SI Units)
195 Fig. F-8-6 Correction to Power for Barometric Pressure (U.S. Customary Units)
196 Fig. F-8-6M Correction to Power for Barometric Pressure (SI Units)
197 Fig. F-8-7 Correction to Heat Rate for Barometric Pressure (U.S. Customary Units)
198 Fig. F-8-7M Correction to Heat Rate for Barometric Pressure (SI Units)
199 Fig. F-8-8 Correction to Power for Ambient Relative Humidity (U.S. Customary Units)
200 Fig. F-8-8M Correction to Power for Ambient Relative Humidity (SI Units)
201 Fig. F-8-9 Correction to Heat Rate for Ambient Relative Humidity (U.S. Customary Units)
202 Fig. F-8-9M Correction to Heat Rate for Ambient Relative Humidity (SI Units)
203 Fig. F-8-10 Correction to Power for Fuel Composition (U.S. Customary Units)
204 Fig. F-8-10M Correction to Power for Fuel Composition (SI Units)
205 Fig. F-8-11 Correction to Heat Rate for Fuel Composition (U.S. Customary Units)
206 Fig. F-8-11M Correction to Heat Rate for Fuel Composition (SI Units)
207 Fig. F-8-12 Correction to Power and Heat Rate for Evaporative Cooler Performance (U.S. Customary Units)
208 Fig. F-8-12M Correction to Power and Heat Rate for Evaporative Cooler Performance (SI Units)
209 Table F-8-1 Summary of Correction Curve Coefficients (SI Units)
210 Table F-8-2 Summary of Correction Curve Coefficients (U.S. Customary Units)
211 Table F-9-1 Summary of Measured Parameters, Corrections, and Results (SI Units)
213 Table F-9-2 Summary of Measured Parameters, Corrections, and Results (U.S. Customary Units)
215 Table F-12-1 Pressure Transmitter Operating and Vendor Information
F-12 PRESSURE TRANSMITTER SYSTEMATIC UNCERTAINTY ANALYSIS
F-12.1 Stated Accuracy
216 Table F-12.3-1 Pressure Transmitter Reference Uncertainty/Calibration Uncertainty
F-12.2 Calibration Uncertainty
F-12.3 Stated Uncertainty Reference Uncertainty/Calibration Uncertainty RU/CU
F-12.4 Ambient Temperature Effect TE
F-12.5 Line Pressure Effect Zero Error LPZE
F-12.6 Line Pressure Effect Span Error LPSE
F-12.7 Mounting Position Effect MPE
F-12.8 Vibration Effect VE
F-12.9 Power Supply Effect PSE
217 Table F-12.4-1 Ambient Temperature Effect
Table F-12.6-1 Line Pressure Effect Span Error
F-12.10 RFI Effect RFIE
F-12.11 Data Acquisition Effect DAE
F-13 THERMISTOR TEMPERATURE MEASUREMENT SYSTEMATIC UNCERTAINTY ANALYSIS
218 Table F-12.11-1 Total Pressure Transmitter Performance Specification Uncertainty
Table F-13-1 Thermistor Operating and Vendor Information
F-13.1 Thermistor Stated Accuracy Reference Uncertainty/Calibration Uncertainty TRU/CU
219 F-13.2 Thermistor Environmental Effect TEE
F-13.3 Thermistor Stability Effects TSE
F-13.4 Thermistor Self Heating Effects TSHE
F-13.5 Thermistor Heat Transfer Effects THTE
F-13.6 DAS Stated Accuracy Reference Uncertainty/Calibration Uncertainty DRU/CU
220 Table F-13.5-1 Total Thermistor Performance Specification Uncertainty
221 F-13.7 DAS Environmental Test Effect DEE
222 F-13.8 DAS Stability Effects DSE
F-13.9 DAS Parasitic Resistance Effect DPRE
F-13.10 DAS Parasitic Voltage Effect DPVE
223 Table F-13.10-1 Thermal Electric Potentials for Common Types of Connections
224 Table F-13.10-2 Total DAS Performance Specification Uncertainty
Table F-13.10-3 Total Thermistor Temperature Measurement Systematic Uncertainty
F-14 RELATIVE HUMIDITY TRANSMITTER SYSTEMATIC UNCERTAINTY ANALYSIS
225 Table F-14.6-1 Total Humidity Transmitter Performance Specification Uncertainty
F-14.1 Stated Accuracy Reference Uncertainty/Calibration Uncertainty RU/CU
F-14.2 Ambient Temperature Effect TE
F-14.3 Vibration Effect VE
F-14.4 Power Supply Effect PSE
F-14.5 RFI Effect RFIE
F-14.6 Data Acquisition Effect DAE
226 Table F-15.1-1 Power Meter Stated Accuracy Systematic Uncertainty
F-15 POWER METER SYSTEMATIC UNCERTAINTY ANALYSIS
F-15.1 Power Meter Stated Accuracy TRU/CU
F-15.2 Ambient Temperature Effect TE
F-15.3 Power Factor Effect PFE
227 Table F-15.6-1 Total Power Meter Performance Specification Uncertainty
F-15.4 Input Range Effect IRE
F-15.5 Line Filter Effect LFE
F-15.6 Aging Effect AE
228 Table F-15.6-2 Total Transformer Uncertainty
Table F-15.6-3 Total Power Systematic Measurement Uncertainty
229 F-16 FUEL ANALYSIS/HEATING VALUE/COMPRESSIBILITY/MOISTURE CONTENT SYSTEMATIC UNCERTAINTY ANALYSIS
F-16.1 Calibration Gas Composition Uncertainty CGCU
F-16.2 Chromatograph Method Effect CME
230 Table F-16.1-1 Calibration Gas Uncertainty
231 Table F-16.2-1 Converted ASTM D1945 Reproducibility
F-16.3 Gas Sampling Method Effect GSME
232 Table F-16.2-2 Relative Reproducibility for Test 1 and Test 2
Table F-16.2-3 Relative Reproducibility for Test 3 and Test 4
233 Table F-16.3-1 Total Fuel Constituent Performance Specification Uncertainty for Test 1
Table F-16.3-2 Total Fuel Constituent Performance Specification Uncertainty for Test 2
234 Table F-16.3-3 Total Fuel Constituent Performance Specification Uncertainty for Test 3
Table F-16.3-4 Total Fuel Constituent Performance Specification Uncertainty for Test 4
235 F-17 PLANT FUEL FLOW SYSTEMATIC UNCERTAINTY
236 F-18 INSTRUMENT SYSTEMATIC UNCERTAINTY
F-19 SENSITIVITY ANALYSIS
237 Table F-17-1 Plant Fuel Flow Post-test Systematic Uncertainty Analysis (Test Run 1)
238 Table F-17-2 Plant Fuel Flow Post-test Systematic Uncertainty Analysis (Test Run 2)
239 Table F-17-3 Plant Fuel Flow Post-test Systematic Uncertainty Analysis (Test Run 3)
240 Table F-17-4 Plant Fuel Flow Post-test Systematic Uncertainty Analysis (Test Run 4)
241 Table F-17-5 Plant Fuel Flow Post-test Systematic Uncertainty Analysis (Test Run 1)
242 Table F-17-6 Plant Fuel Flow Post-test Systematic Uncertainty Analysis (Test Run 2)
243 Table F-17-7 Plant Fuel Flow Post-test Systematic Uncertainty Analysis (Test Run 3)
244 Table F-17-8 Plant Fuel Flow Post-test Systematic Uncertainty Analysis (Test Run 4)
245 Table F-17-9 Plant Fuel Flow Post-test Systematic Uncertainty Analysis (Test Run 1)
246 Table F-17-10 Plant Fuel Flow Post-test Systematic Uncertainty Analysis (Test Run 2)
247 Table F-17-11 Plant Fuel Flow Post-test Systematic Uncertainty Analysis (Test Run 3)
248 Table F-17-12 Plant Fuel Flow Post-test Systematic Uncertainty Analysis (Test Run 4)
249 F-20 SUMMARY OF INSTRUMENT SYSTEMATIC UNCERTAINTY
F-21 SPATIAL SYSTEMATIC UNCERTAINTY
F-22 DATA REDUCTION UNCERTAINTY
250 Table F-19-1 Plant Fuel Flow Post-Test Uncertainty Analysis (Test Run 1)
251 Table F-19-2 Plant Fuel Flow Post-Test Uncertainty Analysis (Test Run 2)
252 Table F-19-3 Plant Fuel Flow Post-Test Uncertainty Analysis (Test Run 3)
253 Table F-19-4 Plant Fuel Flow Post-Test Uncertainty Analysis (Test Run 4)
254 Table F-19-5 Plant Fuel Flow Post-Test Uncertainty Analysis (Test Run 1)
255 Table F-19-6 Plant Fuel Flow Post-Test Uncertainty Analysis (Test Run 2)
256 Table F-19-7 Plant Fuel Flow Post-Test Uncertainty Analysis (Test Run 3)
257 Table F-19-8 Plant Fuel Flow Post-Test Uncertainty Analysis (Test Run 4)
258 Table F-19-9 Plant Fuel Flow Post-Test Uncertainty Analysis (Test Run 1)
259 Table F-19-10 Plant Fuel Flow Post-Test Uncertainty Analysis (Test Run 2)
260 Table F-19-11 Plant Fuel Flow Post-Test Uncertainty Analysis (Test Run 3)
261 Table F-19-12 Plant Fuel Flow Post-Test Uncertainty Analysis (Test Run 4)
262 Table F-20-1 Summary of Instrument Systematic Uncertainty
263 Table F-21-1 Summary of Spatial Systematic Uncertainty
Table F-21-2 Calculation of Systematic Uncertainty Due to Spatial Variation (Compressor Inlet Temperature in °C)
264 Table F-21-3 Calculation of Systematic Uncertainty Due to Spatial Variation (Compressor Inlet Temperature in °F)
Table F-21-4 Calculation of Systematic Uncertainty Due to Spatial Variation (Filter House Temperature in °C)
265 Table F-21-5 Calculation of Systematic Uncertainty Due to Spatial Variation (Filter House Temperature in °F)
Table F-21-6 Calculation of Systematic Uncertainty Due to Spatial Variation (ACC Dry Bulb Temperature in °C)
266 Table F-21-7 Calculation of Systematic Uncertainty Due to Spatial Variation (ACC Dry Bulb Temperature in °F)
F-23 OVERALL SYSTEMATIC UNCERTAINTY
F-24 RANDOM UNCERTAINTY
267 Table F-23-1 Corrected Net Plant Output and Net Plant Heat Rate Post-test Uncertainty Analysis (Test Run 1)
268 Table F-23-2 Corrected Net Plant Output and Net Plant Heat Rate Post-test Uncertainty Analysis (Test Run 2)
269 Table F-23-3 Corrected Net Plant Output and Net Plant Heat Rate Post-test Uncertainty Analysis (Test Run 3)
270 Table F-23-4 Corrected Net Plant Output and Net Plant Heat Rate Post-test Uncertainty Analysis (Test Run 4)
271 Table F-23-5 Corrected Net Plant Output and Net Plant Heat Rate Post-test Uncertainty Analysis (Test Run 1)
272 Table F-23-6 Corrected Net Plant Output and Net Plant Heat Rate Post-test Uncertainty Analysis (Test Run 2)
273 able F-23-7 Corrected Net Plant Output and Net Plant Heat Rate Post-test Uncertainty Analysis (Test Run 3)
274 Table F-23-8 Corrected Net Plant Output and Net Plant Heat Rate Post-test Uncertainty Analysis (Test Run 4)
275 Table F-23-9 Corrected Net Plant Output and Net Plant Heat Rate Post-test Uncertainty Analysis (Test Run 1)
276 Table F-23-10 Corrected Net Plant Output and Net Plant Heat Rate Post-test Uncertainty Analysis (Test Run 2)
277 Table F-23-11 Corrected Net Plant Output and Net Plant Heat Rate Post-test Uncertainty Analysis (Test Run 3)
278 Table F-23-12 Corrected Net Plant Output and Net Plant Heat Rate Post-test Uncertainty Analysis (Test Run 4)
279 Table F-23-13 Uncertainty Analysis Summary, SI Units
Table F-23-14 Uncertainty Analysis Summary, U.S. Customary Units
280 F-25 TOTAL MEASUREMENT UNCERTAINTY
F-26 SYSTEMATIC UNCERTAINTY OF CORRECTED RESULT
281 Table F-24-1 Calculation of Standard Deviation of the Mean (Plant Supply Fuel Flow DP for Test Run 1, cm-H2O)
282 Table F-24-2 Calculation of Standard Deviation of the Mean (Plant Supply Fuel Flow DP for Test Run 1, in.-H2O)
283 Table F-24-3 Calculation of Standard Deviation of the Mean (Plant Supply Fuel Flow Pressure for Test Run 1, bara)
284 Table F-24-4 Calculation of Standard Deviation of the Mean (Plant Supply Fuel Flow Pressure for Test Run 1, psia)
285 Table F-24-5 Calculation of Standard Deviation of the Mean (ACC Inlet Dry Bulb Temperature for Test Run 1, °C)
286 Table F-24-6 Calculation of Standard Deviation of the Mean (ACC Inlet Dry Bulb Temperature for Test Run 1, °F)
287 Table F-24-7 Summary of Student’s t Determination for Test Run 1
289 F-27 RANDOM UNCERTAINTY OF CORRECTED RESULT
F-28 TOTAL UNCERTAINTY OF CORRECTED RESULT
290 Table F-29-1 Evaporative Cooler Effectiveness Test Instrument Uncertainty
Table F-29-2 Evaporative Cooler Effectiveness Test Spatial Uncertainty
F-29 UNCERTAINTY OF A SEPARATE EVAPORATIVE COOLER EFFECTIVENESS TEST
291 Table F-29-3 GT 1 Evaporative Cooler Effectiveness Post-test Uncertainty Analysis
292 Table F-29-4 GT 2 Evaporative Cooler Effectiveness Post-test Uncertainty Analysis
293 NONMANDATORY APPENDIX G ENTERING AIR CONDITIONS
G-1 GENERAL
294 NONMANDATORY APPENDIX H METHODOLOGY TO DETERMINE PART LOAD TEST CORRECTED HEAT RATE AT A SPECIFIED REFERENCE CONDITION FOR A COMBINED CYCLE PLANT
H-1 INTRODUCTION
H-2 BASIC ASSUMPTIONS
H-3 CONDUCTING THE TEST
296 H-4 CORRECTION METHOD
H-5 SAMPLE CALCULATIONS
297 Fig. H-4-1
Table H-5.1-1 Example Table of Values
H-5.1 Example 1 Ambient Temperature Bivariate With Part Load Fraction
H-5.1.1 Determination.
H-5.1.2 Solution.
299 H-5-1.2.1 Determine the Ambient Temperature and Load Correction Factors for Heat Rate.
300 Table H-5.2-1 Example Table of Values
H-5-1.2.2 Calculate the Corrected Part Load Heat Rate.
H-5.2 Example 2 Ambient Temperature is Not Bivariate With Part Load Fraction
H-5.2.1 Determination.
H-5.2.2 Solution.
301 Fig. H-5.2.2-1
H-5.2.2.1 Determine the Load Correction Factor for Heat Rate.
302 H-5.2.2.2 Calculate the Corrected Part Load Heat Rate.
303 NONMANDATORY APPENDIX I PLANT TESTING WITH INLET AIR-CONDITIONING EQUIPMENT OUT OF SERVICE
I-1 INLET AIR-CONDITIONING CONSIDERATIONS
I-2 EVAPORATIVE COOLERS AND FOGGERS
304 Table I-2-1 Example Change in Compressor Inlet Temperature for High Relative Humidity
Table I-2-2 Example Change in Compressor Inlet Temperature for Low Relative Humidity
I-3 OTHER INLET CONDITIONING SYSTEMS

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ASME PTC 46 2015
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