Boiler Room Guide FOREWORD
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Development and Application of Optimal Design Capability for Coal Gasification Systems
DEVELOPMENT AND APPLICATION OF OPTIMAL DESIGN CAPABILITY FOR COAL GASIFICATION SYSTEMS Technical Documentation: Oxygen-based Combustion Systems (Oxyfuels) with Carbon Capture and Storage (CCS) Final Report of Work Performed Under Contract No.: DE-AC21-92MC29094 Reporting Period Start, October 2003 Reporting Period End, May 2007 Report Submitted, May 2007 to U.S. Department of Energy National Energy Technology Laboratory 626 Cochrans Mill Road, P.O. Box 10940 Pittsburgh, Pennsylvania 15236-0940 by Edward S. Rubin (P.I.) Anand B. Rao Michael B. Berkenpas Carnegie Mellon University Center for Energy and Environmental Studies Department of Engineering and Public Policy Pittsburgh, PA 15213-3890 Contents Objective 1 Literature Review 2 Process Overview ......................................................................................................................2 History .......................................................................................................................................4 Advantages ................................................................................................................................5 Issues and Challenges................................................................................................................6 Performance Model 8 Model Configurations................................................................................................................8 Default Configuration................................................................................................................9 -
Impact of Fuel Variability and Operating Parameters on Biomass Boiler Performance
Impact of Fuel Variability and Operating Parameters on Biomass Boiler Performance by Nazanin Abbas Nejad Orang A thesis submitted in conformity with the requirements for the degree of Doctorate of Philosophy Chemical Engineering and Applied Science University of Toronto © Copyright by Nazanin Abbas Nejad Orang 2019 Impact of Fuel Variability and Operating Parameters on Biomass Boiler Performance Nazanin Abbas Nejad Orang Doctor of Philosophy Department of Chemical Engineering and Applied Chemistry University of Toronto 2019 Abstract Biomass boilers provide up to one-third of the energy requirement in pulp and paper mills by burning hog fuel, which is a mixture of wood-waste available at the mill site. The quality of this fuel varies significantly depending on its source and storage conditions. This fuel variability often causes biomass boiler operation to be unstable and unpredictable. This study consists of two parts: the first part investigates the impact of fuel variability on combustion and develops means for mitigating these impacts to achieve stable boiler operation. The second part identifies the most influential parameter in boiler operation using multivariate analysis, and develops a predictive statistical model for optimization of biomass boiler thermal performance. In the first part, wood species are differentiated by their initial particle density. For all wood species examined, particle density decreases throughout the combustion process but at different rates depending on the combustion stage. During the devolatilization stage, the density decreases significantly as a result of rapid mass loss. This sharp decrease causes particles to be light enough to be entrained and/or be lifted off from the grate by the flue gas. -
Introduction to Steam Generating Unit (Boiler)
Introduction to Steam Generating Unit (Boiler) A boiler is a closed vessel in which steam is produced from water by combustion of fuel. How a Boiler works:: Water is pumped into the boiler at operating pressure Heat of flue gases vaporizes water to form steam Steam formed is passed into steam space above the water space Applications of steam generatorss (Boilerss)) The steam generators or boilers are integral components of steam turbines which are used as prime movers to drive generators to produce electricity in all thermal and nuclear power plants. These are used in the industry for example in heating systems or for cement production, textiles. These are used to produce distilled water for medicines, pharmaceuticals and other usage. The boilers are used in cold countries for heating large buildings, in agriculture as well for soil steaming. Components of a steam generator (Boiler) Boiler drum, tubes, furnace Boiler mountings Boiler Accessories Boiler mountings are devices which are required for proper operation, safety and control of the boiler. Examples ar ee water level indicator (WLI), pressure gauges (PGs), steam stop valve, safety valves, fusible plug, feed-check valve, blow-off cock, manhole and mudhole, etc. Boiler accessories are devices which are used to increase the efficiency of a boiler. Examples are air preheater, economizer , ss, uperheater , feedpump or injector, baffles, etc.. Boiler classification: 1.1. Tube content: (i) Fire tube boiler and (ii) water tube boiler 2.2. Axis of shell: (i) Horizontal, (ii) vertical, (iii) inclined 3.3. Location of furnace: (i) Externally fired, (ii) internally fired 4.4. -
Best Practices in Multifamily Housing Upgrades
Tackle Energy Efficiency and Indoor Air Quality Together: Best Practices in Multifamily Housing Upgrades Provided by the U.S. EPA in collaboration with U.S. HUD October 2017 PRESENTERS Julia Brooke Hustwit Multifamily Sector Lead, Better Buildings Challenge U.S. HUD Thomas Bowles Residential IAQ Expert EPA Indoor Environments Division William Weber Senior Research Fellow Center for Sustainable Building Research Univ. of Minnesota Rosemary Olsen Executive Director Village of Hempstead Housing Authority, NY AGENDA . Introduction (EPA/HUD) . Why integrate indoor environmental quality measures into ongoing property management, preventative maintenance, building upgrades, and new construction? . How to use the EPA’s Energy Savings Plus Health Guide for Multifamily Building Upgrades . Benefits of holistic approach to energy efficiency and indoor air quality . Mankato and Hempstead case studies . Q&A Session LEARNING OBJECTIVES Webinar Participants will learn how to: . Get started implementing guidance from Energy Savings Plus Health: Multifamily Building Upgrades to integrate IAQ protections into multifamily energy efficiency retrofits and other building upgrade projects . Create a custom verification checklist using the Multifamily Checklist Generator . Apply best practices modeled by case studies from the Mankato Housing Authority and the Hempstead Housing Authority Pilot studies. U.S. DEPARTMENT OF HOUSING & URBAN DEVELOPMENT Multifamily Buildings2_Title Slide Sector 115 Multifamily Sector Partners 750,000 Housing Units 600 Million Square -
Steamboating Guide Edition 2 2010
Steamboating SampleGuide Pages Second Edition Steamboating Guide Edition 2 2010 Edited by Roger Calvert and Rob van Es The contributors and editors of this publication have made every effort to ensure the accuracy and relevance of the data presented and the validity and appropriateness of the recommendations made. It is, however, ultimately the responsibility of the owner of a boat to check the data and take the final decisions, in the context of the proposed design. If necessary, appropriate professional advice should be sought. Neither the contributors, the editors, nor the SBA can accept responsibility for any direct or indirect consequences arising from the use of the data or from following the recommendationsSample of this publication. Pages Copying of parts or the whole of this document by members of the SBA is permitted, subject to the terms published on the SBA web site. Otherwise, copying is not permitted without the permission of the SBA, except as allowed under copyright law. Table of Contents Preface Section A – Introduction 1 Hulls 1-1 2 Boiler Types 2-1 3 Engine Types 3-1 4 Fuels 4-1 Section B – Steamboat Operations 5 Boiler Fittings 5-1 6 Steam Plant Installation 6-1 7 Boiler Operation and Maintenance 7-1 8 Steam Ancillaries 8-1 9 Boat Handling Advice 9-1 10 Boiler Inspection and Testing 10-1 11 Trailers and Towing 11-1 Section C – Technical 12 Propulsion 12-1 13 Valve Setting 13-1 14 Data and Performance 14-1 15 Boiler Design Considerations 15-1 16 Workshop Techniques 16-1 Glossary 17-1 Index 18-1 Sample Pages Preface The aims and objects of the Steam Boat Association are: (i) To foster and encourage steam boating and the building, development, preservation and restoration of steam boats and steam machinery, by all possible means. -
OAK RIDGE NATIONAL LABORATORY Operated By
OAK RIDGE NATIONAL LABORATORY operated by UNION CARBIDE CORPORATION UNION CARBIDE NUCLEAR DIVISION for the I U.S. ATOMIC ENERGY COMMISSION ORNL- TM- 2080 12 DESIGN OF BOILER-SUPERHEATER UNITS FOR REPRESENTATIVE CESIUM AND POTASSIUM SPACE POWER PLANTS T. T. Robin NOTICE This document contains information of a preliminary nature and was prepared primarily for internal use at the Oak Ridge National Laboratory. It is subject to revision or correction and therefore does not represent a final report. LEGAL NOTICE This report was prepared as an account of Government sponsored work. Neither the United States, nor the Commission, nor any person acting on behalf of the Commission: A. Makes any warranty or representation, expressed or implied, with respect to the accuracy, completeness, or usefulness of the information contained in this report, or that the use of any information, apparatus, method, or process disclosed in this report may not infringe privately owned rights; or B. Assumes any liabilities with respect to the use of, or for damages resulting from the use of any information, apparatus, method, or process disclosed in this report. As used in the above, "person acting on behalf of the Commission" includes any employee or contractor of the Commission, or employee of such contractor, to the extent that such employee or contractor of the Commission, or employee of such contractor prepares, disseminates, or provides access to, any information pursuant to his employment or contract with the Commission, or his employment with such contractor. ORNL-TM-2080 Contract No. W-7405-eng-26 Reactor Division DESIGN OF BOILER-SUPERHEATER UNITS FOR REPRESENTATIVE CESIUM AND POTASSIUM SPACE POWER PLANTS T. -
INDEX for FORMS Under Indian Boiler Regulations, 1950
INDEX for FORMS under Indian Boiler Regulations, 1950 ___________________________________________________________________________ Form No. Description Page ___________________________________________________________________________ Form I Memorandum of Inspection or Registration Book 1 - 29 Form II Inspecting Authority's Certificate of Inspection during 30 Construction (Reg. 4-C)…… Form II-A Inspecting Authority Certificate of Inspection during Construction in respect of the boiler made to foreign code 31 Form II-B Inspecting Authority Certificate of Inspection during the Inspection of boilers for which variation from standard Have been permitted 32 Form III Constructor's Certificate of Manufacture and Test 33-42 (Reg.4-d) Form III-A Certificate of Manufacture and Test for Steam Pipes 43-44 Form III-A(I) Certificate of manufacture and test of steam pipes for 45-46 Which variations have been permitted Form III-B Certificate of Manufacture and Test for tubes 47-48 Form III-B(I) Certificate of manufacture and test 49-50 Form III-C Certificate of Manufacture and Test of Boiler mounting 51 And Fittings. Form III-D Certificate of Manufacture and Test 52 Form III-E Certificate of Manufacture and Test 53 Form III-F Certificate of Manufacture and Test of casting & forging 54 Form IV Steel Marker's Certificate of Manufacture and results of Test 55 Form IV-A Certificate of Manufacture and Results of Tests in lieu of 56 Form IV. Form V Provisional Order under section 9 of the Indian Boilers 57 Act, 1923 Form VI Certificate for use of a Boiler 58-59 -
Steam Power Plant
www.getmyuni.com Steam Power Plant A power plant is assembly of systems or subsystems to generate electricity, i.e., power with economy and requirements. The power plant itself must be useful economically and environmental friendly to the society. The present book is oriented to conventional as well as non-conventional energy generation. While the stress is on energy efficient system regards conventional power systems viz., to increase the system conversion efficiency the supreme goal is to develop, design, and manufacturer the non-conventional power generating systems in coming decades preferably after 2050 AD which are conducive to society as well as having feasible energy conversion efficiency and non-friendly to pollution, keeping in view the pollution act. The subject as a whole can be also stated as modern power plants for power viz electricity generation in 21st century. The word modern means pertaining to time. At present due to energy crisis the first goal is to conserve energy for future while the second step is todevelop alternative energy systems including direct energy conversion devices, with the devotion, dedication and determination remembering the phrase, “Delve and Delve Again till wade into”. CLASSIFICATION OF POWER PLANTS Power Plant 1. Conventional - Steam Engines Power Plants - S team Turbine Power Plants - Diesel Power Plants - Gas Turbine Power Plants - Hydro-Electric Power Plants - Nuclear Power Plants Thermoelectric Generator 2. Non-conventional Thermoelectric generator Fuel-cells Power Plants Photovoltaic solar cells Power S ystem MHD Power Plants Fussion Reactor N PP Power S y stem Biogas, Biomass Energy Power sy stem Geothermal Energy Wind Energy Power System Ocean Thermal energy conversion (OTEC) Wave and Tidal Wave Energ y Plantation Scheme A power plant may be defined as a machine or assembly of equipment that generates and delivers a flow of mechanical or electrical energy. -
Guide to Injectors
Advanced Guide to Injectors A little bit here on injectors may be helpful. These are small units that put water into the boiler by using boiler steam against boiler pressure. These are magic, but can often be temperamental and certainly many will not work with warm water. To start, turn on cold water until it flows out of the injector overflow, then turn on the steam slowly and the flow of water should stop. If at first they do not pick up, then shut off the steam and start the process again. Some injectors work better at higher pressures and some at lower, (The size of the internal steam cone makes a difference). You have to get to know which pressure range your injector works best at. To make the injector work you need a good flow of cold water, it is essential that there are no leaks on the suction side as this will draw in air and stop the injector working. NEVER use anything to poke in the steam cones to clean them. Always use a liquid solvent to do this job. Some people even immerse them in coke a cola to clean them and that certainly works, More on Water Levels A word about the hatching may help those that do not know. If a piece of white card or indeed anything painted white is placed behind the gauge glass that has black lines at a 45 degree angle across all the way up it. With this it will show the exact water level very easily. If water is present in the glass when viewed from the front, the lines will show up as straight not angled. -
Available and Emerging Technologies for Reducing Greenhouse Gas Emissions from Industrial, Commercial, and Institutional Boilers
Off i ce of Air and Radiat i on Oct ober 2010 AVAILABLE AND EMERGING TECHNOLOGIES FOR REDUCING GREENHOUSE GAS EMISSIONS FROM INDUSTRIAL, COMMERCIAL, AND INSTITUTIONAL BOILERS Available and Emerging Technologies for Reducing Greenhouse Gas Emissions from Industrial, Commercial, and Institutional Boilers Prepared by the Sector Policies and Programs Division Office of Air Quality Planning and Standards U.S. Environmental Protection Agency Research Triangle Par k, Nor t h Car ol i na 27711 Oct ober 2010 2 Table of Contents Page I. Introduction …………………………………………………………….. 4 II. Purpose of This Document ………………………………………….. 4 III. Description of ICI Boilers ………………………………………….. 4 IV. Description of ICI Boiler Design Types ……………………………. 6 1. Pulverized Coal ……………………………………………… 6 2. Fluidized Bed ………………………………………………… 6 3. Stoker ………………………………………………………… 7 4. Watertube ……………………………………………………. 7 5. Firetube ………………………………………………………. 8 V. Summary of Measures to Reduce GHGs……………………………… 8 VI. Energy Efficiency Improvements ………………………………….. 11 1. O&M Practices ……………………………………………… 11 1.1 New Burners / Upgrades ………………………………. 12 1.2 Improved Combustion Measures ………………………… 13 2. Air Preheat and Economizers ………………………………. 15 3. Turbulators for Firetube Boilers ……………………………. 17 4. Boiler Insulation ……………………………………………. 18 5. Minimization of Air Infiltration …………………………….. 19 6. Boiler Blowdown Heat Exchanger …………………………. 19 7. Condensate Return System ………………………………….. 20 8. Refractory Material Selection ……………………………….. 21 9. Minimization of Gas-Side Heat Transfer Surface Deposits -
Stork Equipment & Energy Solutions
STORK EQUIPMENT & ENERGY SOLUTIONS PRODUCT & SERVICES OVERVIEW STORK Van Deventerlaan 121 3528 AG Utrecht The Netherlands [email protected] WWW.STORK.COM © 2019 Stork, A Fluor Company. All Rights Reserved. WWW.STORK.COM INTRODUCTION STORK, A FLUOR COMPANY GLOBAL BUSINESS WITH A STRONG LOCAL PRESENCE Stork facilities (excl. project locations) Stork maintains, modifies and assures the integrity of production workshops in a variety of industries, including oil and gas, chemicals and processing, metals and mining, food and pharmaceuticals, power, and manufacturing. Generators & Motors, Stork is part of Fluor Corporation, a global engineering, Turbo Blading, Ithaca Turbo Blading, Sneek Turbo Machinery, Almere Obergartzem Netherlands procurement, fabrication, construction and maintenance (Rotterdam, Utrecht, Elsloo, Groningen, company that designs and builds capital-efficient facilities. Sneek, Hengelo, Stork assists clients by providing a life cycle asset solution UK (Aberdeen) Almere, Vlissingen) UK (Great Yarmouth) which is innovative, cost-competitive and always respects Belgium (Antwerp) Germany (Essen, the key values of safety, integrity, teamwork, client focus USA (Ithaca) Regensburg, Leuna, USA Obertgartzem) Azerbaijan (Baku) China (Beijing) and excellence. (Salt Lake City) USA (Greenville) USA (Houston, Pasadena) Kuwait Mexico (Mexico City) Qatar (Al Khor) UAE (Abu Dhabi) Saudi Arabia Oman (Muscat) (Jubail, Yanbu) Trinidad and Tobago (Point Lisas) Colombia Malaysia (Kuala Lumpur) (Bogota, Neiva) Singapore Upgrades & Indonesia (Jakarta) -
An Examination of Boiler Failures and Associated Design Issues
To the Graduate Council: I am submitting herewith a thesis written by Tiffany Grant entitled “An Examination of Boiler Failures and Associated Design Issues.” I have examined the final paper copy of this thesis for form and content and recommend that it be accepted in partial fulfillment of the requirements for the degree of Master of Science, with a major in Mechanical Engineering. Dr. Jim Hiestand, Major Professor We have read this thesis and recommend its acceptance: Dr. Gary McDonald Dr. Mike Jones Dr. Ethan Carver Acceptance for the Council: Dr. Stephanie Bellar Interim Dean of the Graduate School An Examination of Boiler Failures and Associated Design Issues A Thesis Presented for the Master of Science Degree The University of Tennessee at Chattanooga Tiffany Sherrell Grant April 2009 ii DEDICATION This thesis is dedicated to my parents, Jim and Phyllis Grant, for always giving me the strength to succeed and my fiancé, Bradley Winn, who always told me that I could do anything if I was willing to work hard enough for it. iii Acknowledgments I would like to thank all those who helped me attain my Master of Science degree in Mechanical Engineering. I wish to thank Mr. Wayne Michaelian from Performance & Design Engineering at ALSTOM Power Systems in Chattanooga, Tennessee who helped me throughout this journey. I would also like to thank Dr. James Hiestand for being such a great advisor who was always willing to help me when I needed it. Also, thank you to Dr. Mike Jones, Dr. Gary McDonald and Dr. Ethan Carver for serving on my thesis committee.