ASME PTC 4 08 2008
$98.04
ASME PTC 4 Fired Steam Generators – Performance Test Codes
Published By | Publication Date | Number of Pages |
ASME | 2008 | 294 |
PDF Catalog
PDF Pages | PDF Title |
---|---|
7 | NOTICE |
8 | FOREWORD |
10 | COMMITTEE ROSTER |
11 | CORRESPONDENCE WITH THE PTC 4 COMMITTEE FIGURES TABLES |
12 | Section 1 Object and Scope 1- 1 OBJECT 1- 2 SCOPE |
13 | 1- 3 TYPICAL UNCERTAINTY FOR EFFICIENCY |
14 | 1- 4 STEAM GENERATOR BOUNDARIES Table 1- 3- 1 Typical Code Test Uncertainties for Efficiency |
16 | 1-4-1 Typical Oil and Gas-Fired Steam Generator |
17 | 1-4-2 Typical Pulverized Coal-Fired Steam Generator Alternative 1: Single Air Heater |
18 | 1-4-3 Typical Pulverized Coal-Fired Steam Generator Alternative 2: Bisector Air Heater |
19 | 1-4-4 Typical Pulverized Coal-Fired Steam Generator Alternative 3: Trisector Air Heater |
20 | 1-4-5 Typical Circulation Bed Steam Generator |
21 | 1-4-6 Typical Stoker-Coal-Fired Steam Generator |
22 | 1-4-7 Typical Bubbling Bed Steam Generator |
23 | Section 2 Definitions and Description of Terms 2- 1 DEFINITIONS |
26 | 2- 2 ABBREVIATIONS 2- 3 UNITS AND CONVERSIONS |
27 | Table 2- 3- 1 Units and Conversions |
28 | Section 3 Guiding Principles 3- 1 INTRODUCTION |
29 | 3-1-1 Steam Generator Energy Balance |
31 | 3- 2 PERFORMANCE TEST PROCEDURES Table 3- 1- 1 Comparison of Efficiency Determination |
32 | 3-2-1 Repeatability of Runs |
34 | Table 3- 2- 1 Operating Parameter Deviations |
36 | 3-2-2 Illustration of Short-Term (Peak to Valley) Fluctuation and Deviation From Long-Term (Run) Average |
37 | Table 3- 2- 2 Minimum Test- Run Duration |
38 | 3- 3 REFERENCES TO OTHER CODES AND STANDARDS |
39 | 3- 4 TOLERANCES AND TEST UNCERTAINTIES |
40 | Section 4 Instruments and Methods of Measurement 4- 1 GUIDING PRINCIPLES 4- 2 DATA REQUIRED |
41 | Table 4- 2- 1 Parameters Required for Efficiency Determination by Energy Balance Method |
43 | 4- 3 GENERAL MEASUREMENT REQUIREMENTS |
45 | Table 4- 2- 2 Parameters Required for Efficiency Determination by Input– Output Method |
46 | Table 4- 2- 3 Parameters Required for Capacity Determination |
47 | Table 4- 2- 4 Parameters Required for Steam Temperature/ Control Range Determination |
48 | Table 4- 2- 5 Parameters Required for Exit Flue Gas and Air Entering Temperature Determinations |
49 | Table 4- 2- 6 Parameters Required for Excess Air Determination |
50 | Table 4- 2- 7 Parameters Required for Water/ Steam Pressure Drop Determinations |
51 | Table 4- 2- 8 Parameters Required for Air/ Flue Gas Pressure Drop Determinations |
52 | Table 4- 2- 9 Parameters Required for Air Infiltration Determination |
53 | Table 4- 2- 10 Parameters Required for Sulfur Capture/ Retention Determination Table 4- 2- 11 Parameters Required for Calcium- to- Sulfur Molar Ratio Determination |
54 | Table 4- 2- 12 Parameters Required for Fuel, Air, and Flue Gas Flow Rate Determinations |
55 | Table 4- 3- 1 Potential Instrumentation Systematic Uncertainty |
57 | Table 4- 3- 2 Potential Systematic Uncertainty for Coal Properties Table 4- 3- 3 Potential Systematic Uncertainty for Limestone Properties |
58 | Table 4- 3- 4 Potential Systematic Uncertainty for Fuel Oil Properties Table 4- 3- 5 Potential Systematic Uncertainty for Natural Gas Properties |
59 | 4- 4 TEMPERATURE MEASUREMENT |
60 | 4-4-1 Sampling Grids: Rectangular Ducts |
61 | 4-4-2 Sampling Grids: Circular Ducts |
63 | 4- 5 PRESSURE MEASUREMENT |
64 | 4- 6 VELOCITY TRAVERSE 4- 7 FLOW MEASUREMENT |
67 | 4- 8 SOLID FUEL AND SORBENT SAMPLING |
68 | 4-8-1 Full Stream Cut Solid Sampling Process |
69 | 4-8-2 Typical “Thief” Probe for Solids Sampling in a Solids Stream |
71 | Table 4- 8- 1 F Distribution |
72 | 4- 9 LIQUID AND GASEOUS FUEL SAMPLING 4- 10 SAMPLING OF FLUE GAS |
73 | 4- 11 RESIDUE SAMPLING |
74 | 4- 12 FUEL, SORBENT, AND RESIDUE ANALYSIS 4- 13 FLUE GAS ANALYSIS |
75 | 4- 14 ELECTRIC POWER |
76 | 4- 15 HUMIDITY 4- 16 MEASUREMENTS FOR SURFACE RADIATION AND CONVECTION LOSS |
78 | Section 5 Computation of Results 5- 1 INTRODUCTION 5- 2 MEASUREMENT DATA REDUCTION |
81 | 5- 3 CAPACITY 5- 4 OUTPUT ( QrO), Btu/ hr ( W) Btu/ hr ( W) |
82 | 5- 5 INPUT 5- 6 ENERGY BALANCE |
83 | 5- 7 EFFICIENCY |
84 | 5- 8 FUEL PROPERTIES |
86 | 5- 9 SORBENT AND OTHER ADDITIVE PROPERTIES |
88 | 5- 10 RESIDUE PROPERTIES |
90 | 5- 11 COMBUSTION AIR PROPERTIES |
93 | 5- 12 FLUE GAS PRODUCTS |
95 | 5- 13 AIR AND FLUE GAS TEMPERATURE |
98 | 5- 14 LOSSES |
105 | 5- 15 CREDITS |
106 | 5- 16 UNCERTAINTY |
108 | Table 5- 16- 1 Two- Tailed Student’s t – Table for the 95% Confidence Level |
109 | 5- 17 OTHER OPERATING PARAMETERS |
110 | 5- 18 CORRECTIONS TO STANDARD OR DESIGN CONDITIONS |
120 | 5- 19 ENTHALPY OF AIR, FLUE GAS, AND OTHER SUBSTANCES COMMONLY REQUIRED FOR ENERGY BALANCE CALCULATIONS |
126 | 5- 20 CALCULATION ACRONYMS |
127 | 5-19-1 Mean Specific Heat of Dry Air Versus Temperature |
128 | 5-19-2 Mean Specific Heat of Water Vapor Versus Temperature |
130 | 5-19-3 Mean Specific Heat of Dry Flue Gas Versus Temperature |
131 | 5-19-4 Mean Specific Heat of Dry Residue Versus Temperature |
133 | Table 5- 20.2- 1 Acronyms |
139 | Table 5- 20.2- 2 Measurement and Uncertainty Acronyms |
140 | Section 6 Report of Test Results 6- 1 INTRODUCTION 6- 2 REPORT CONTENTS |
142 | Section 7 Uncertainty Analysis 7- 1 INTRODUCTION 7- 2 FUNDAMENTAL CONCEPTS |
144 | 7-2.2-1 Types of Errors in Measurements 7-2.2-2 Time Dependence of Errors |
146 | 7-2.3-1 Constant Value and Continuous Variable Models |
148 | 7- 3 PRETEST UNCERTAINTY ANALYSIS AND TEST PLANNING |
149 | 7- 4 EQUATIONS AND PROCEDURES FOR DETERMINING THE STANDARD DEVIATION FOR THE ESTIMATE OF RANDOM ERROR |
153 | 7- 5 EQUATIONS AND GUIDANCE FOR DETERMINING SYSTEMATIC UNCERTAINTY |
155 | 7-5.2.1-1 Generic Calibration Curve |
158 | 7- 6 UNCERTAINTY OF TEST RESULTS |
160 | NONMANDATORY APPENDICES A CALCULATION FORMS A- 1 INTRODUCTION A- 2 SYSTEM OF UNITS |
161 | A- 3 ORDER OF CALCULATIONS |
162 | A- 4 EFFICIENCY CALCULATIONS: INSTRUCTIONS FOR EFF FORMS |
164 | A- 5 COMBUSTION CALCULATIONS: INSTRUCTIONS FOR CMBSTN FORMS |
168 | A- 6 GASEOUS FUELS: INSTRUCTIONS FOR GAS FORM A- 7 UNBURNED CARBON AND RESIDUE CALCULATIONS: INSTRUCTIONS FOR RES FORM |
170 | A- 8 SORBENT CALCULATION SHEET: MEASURED C AND CO IN RESIDUE |
172 | A- 9 OUTPUT: INSTRUCTIONS FOR FORM OUTPUT |
173 | A- 10 DATA REDUCTION WORKSHEETS: INSTRUCTIONS FOR DATA FORMS |
174 | A- 11 UNCERTAINTY CALCULATIONS: INSTRUCTIONS FOR UNCERTAINTY WORKSHEET FORMS |
194 | B SAMPLE CALCULATIONS B- 1 TEMPERATURE MEASUREMENT B- 2 PRESSURE MEASUREMENT |
196 | B- 3 FLOW MEASUREMENT |
197 | B- 4 OUTPUT CALCULATION |
218 | B- 5 COAL- FIRED STEAM GENERATOR B- 6 OIL- FIRED STEAM GENERATOR |
273 | C DERIVATIONS C- 1 INTRODUCTION C- 2 DERIVATIONS OF SULFUR CAPTURE/ RETENTION FROM MEASURED O AND SO |
277 | D GROSS EFFICIENCY: ENERGY BALANCE AND INPUTŒ OUTPUT METHOD LHV EFFICIENCY: ENERGY BALANCE METHOD |
278 | D- 4 EFFICIENCY ON A LOWER HEATING VALUE, BASIS |
280 | E THE PROBABLE EFFECTS OF COAL PROPERTIES ON PULVERIZED COAL AND COAL AND SORBENT PROPERTIES ON FLUIDIZED BED STEAM GENERATOR DESIGN AND PERFORMANCE E- 1 INTRODUCTION E- 2 PULVERIZED COAL FIRED STEAM GENERATORS E- 3 FLUIDIZED BED COMBUSTION COAL FIRED STEAM GENERATORS |
281 | Table E- 2- 1 Effects of Coal Ranks on Steam Generators Table E- 2- 2 Effects of Coal Properties on Steam Generator Design and Performance |
282 | Table E- 2- 2 Effects of Coal Properties on Steam Generator Design and Performance ( Cont’d) |
284 | Table E- 3- 1 Proximate Analysis for Coal |
285 | Table E- 3- 2 Ultimate Analysis of Coal |
286 | Table E- 3- 3 Special Tests and Size Analysis for Coal |
287 | Table E- 3- 4 Special AFBC Tests for Coal |
288 | Table E- 3- 5 Chemical Analysis of Sorbent |
289 | Table E- 3- 6 Size and TGA Analysis and Geological Classification of Sorbent |
290 | Table E- 3- 7 Attrition, Grain, and Pore Size Analysis of Sorbent |
291 | F REFERENCES |