B Lipski Combined Redacted
Total Page:16
File Type:pdf, Size:1020Kb

Load more
Recommended publications
-
Evaluating Soil by Particulate Emission Potential
Evaluating Soil by Particulate Emission Potential Catherine MacDougall Clark County Department of Comprehensive Planning 500 S. Grand Central Parkway P. O. Box 551741 Las Vegas, NV 89155-1741 Email: [email protected] Gregory DeSart, Robert Thomsen, and Dr. Alan Chamberlain Geotechnical & Environmental Services 7150 Placid Las Vegas, NV 89119 Email: [email protected] Troy Hildreth Envirocon 4040 Frehner Road North Las Vegas, Nevada 89030 ABSTRACT Soils have been categorized by geologic features for a number of years. However, the geologic soil characterizations have not been good indicators of the amount of particulate emissions generated by construction activities. In the Las Vegas valley, soils varied widely based upon the amount of the silt in the soil and the ability to control dust emissions using water. Some soils had very high silt content and the emissions generated by construction activities were readily controlled by water. In other areas of the valley, there was a high percentage of silt in the soil and the soil was highly hydrophobic. Water was not effective for controlling emissions. Some soils had very little silt, and minimal dust control measures were needed to control fugitive dust. A soil classification system was developed using standard soil parameters that would indicate the particulate emission potential (PEP) of soil. The PEP was based upon the amount of the smaller particles that could lead to PM10 (particulate matter 10 microns in aerodynamic diameter and smaller) and the ease that potential emissions could be controlled. Once classified, the soil type was then used to develop site specific dust control methods. -
Upper Hunter Economic Diversification Project
Upper Hunter Economic Diversification Project Report 3 of 3: Strategy Report Buchan Consulting June 2011 This project is supported by: Trade & Investment Office of Environment & Heritage Department of Premier & Cabinet Final Report Table of Contents Table of Contents.................................................................................................................................................................................. 1 Executive Summary .............................................................................................................................................................................. 4 A. Regional Economy........................................................................................................................................................................ 4 B. Major Issues.................................................................................................................................................................................. 6 C. A Diversification Strategy.............................................................................................................................................................. 8 D. Opportunities .............................................................................................................................................................................. 10 E. Implementation .......................................................................................................................................................................... -
Fugitive Dust Risk Plan
DRAFT Fugitive Dust Risk Management Monitoring Plan RED DOG OPERATIONS ALASKA July 2011 Teck Alaska Incorporated 3105 Lakeshore Drive Building A, Suite 101 Anchorage, Alaska 99517 DRAFT Fugitive Dust Risk Management Monitoring Plan RED DOG OPERATIONS ALASKA Teck Alaska Incorporated 3105 Lakeshore Drive Building A, Suite 101 Anchorage, Alaska 99517 Contact information: Rebecca Hager 907-426-9141 [email protected] Prepared by: Exponent 15375 SE 30th Place, Suite 250 Bellevue, Washington 98007 July 2011 Document number: 8601997.009 5810 1009 SS01 Draft—June 2011 Contents Page List of Figures iv List of Tables v Acronyms and Abbreviations vi Executive Summary vii 1 Introduction 1 2 Goal of the Monitoring Plan 3 3 Summary of Past, Ongoing, and Potential Future Monitoring 5 3.1 Caribou Monitoring 5 3.1.1 1996 and 2002 Evaluations of Metals Concentrations in Caribou Tissues 5 3.1.2 2009 Red Dog Mine Caribou Health Assessment 6 3.2 Vegetation Monitoring 7 3.2.1 2001 Moss Tissue Study 7 3.2.2 2002 Moss Tissue Study 7 3.2.3 2003 Moss Tissue Study 7 3.2.4 2004 Vegetation Community Survey 8 3.2.5 2006 Mine Vegetation Survey 9 3.2.6 2008 Moss Tissue Study 9 3.3 Operational Monitoring 10 3.3.1 U.S. Environmental Protection Agency Method 22—Visible Emissions Evaluation 10 3.3.2 High-Volume Total Suspended Particulates Monitoring 11 3.3.3 TEOM Air Monitoring 12 3.3.4 Dustfall Jar Monitoring 12 3.3.5 Road Surface Monitoring 13 3.3.6 Snow Sampling Study 14 3.3.7 Marine Sediment Monitoring 14 3.3.8 Meteorological Monitoring 15 3.4 Additional Monitoring Programs 16 3.4.1 Aquatic Biomonitoring 16 8601997.009 5810 1009 SS01 y:\enviro\intra\land\ra & contaminated sites\risk management ii plan\monitoring plan\062411 monitoring plan final draft.docx Draft—June 2011 3.5 Potential Monitoring Actions Identified in the Risk Management Planning Process 17 4 Actions to be Implemented 18 4.1 Source Monitoring 20 4.1.1 U.S. -
Fugitive Dust Frequently Asked Questions
Fugitive Dust Frequently Asked Questions What is fugitive dust? Fugitive dust is small airborne particle called particulate matter. These small airborne particles have the potential to adversely affect human health or the environment. EPA defines fugitive dust as “particulate matter that is generated or emitted from open air operations (emissions that do not pass through a stack or a vent)”. EPA classifies particulate matter as one of six principal air pollutants, which include carbon monoxide (CO), lead (Pb), nitrogen dioxide (NO2), ozone (O3), and sulfur dioxide (SO2). Particulate matter consists of solid particles and liquid droplets suspended in the air. The most common forms of particulate matter (PM) are known as PM10 (particulate matter with a diameter of 10 microns or less) and PM2.5 (particulate matter with a diameter of 2.5 microns or less). Other pollutants can have particulates: Prior to falling to the earth, sulfur dioxide (SO2) and nitrogen oxide (NOx) gases and their particulate matter derivatives—sulfates and nitrates— contribute to visibility degradation and harm public health. Where does fugitive dust come from? Sources of fugitive dust can be both natural and human: Natural sources of fugitive dust are wind erosion - especially in dry, arid conditions and areas of sparse vegetation. Wildfires are another natural source of fugitive dust. In Alaska, dry winter conditions can increase fugitive dust. Fugitive dust also originates from human activities. Human activities include: Agriculture Building construction and demolition Commercial and Industrial activities o Gravel pits and crushers o Concrete and asphalt batch plants o Mining and mineral processing o Sandblasting Smoke stacks o Boilers o Incinerators o Wood stoves Open burns Vehicle exhaust Road traffic Why is fugitive dust a concern? EPA estimates 25 million tons of fugitive dust emissions are generated per year; the majority of those emissions come from unpaved roads and miscellaneous agricultural activities. -
Greenhouse Gas Issues Within Australia's Electricity Industry
Greenhouse Gas Issues Within Australia’s Electricity Industry by: Richard Cumpston & Andrew Burge ã 2003 The Institute of Actuaries of Australia This paper has been prepared for issue to, and discussion by, Members of the Institute of Actuaries of Australia. The Council wishes it to be understood that opinions put forward herein are not necessarily those of the Institute and the Council is not responsible for those opinions. Level 7 Challis House 4 Martin Place SYDNEY NSW 2000 Tel: (02) 9233 3466 Fax: (02) 9233 3446 Email: [email protected] Web site: www.actuaries.asn.au Greenhouse Gas Issues within Australia's Electricity Industry Richard Cumpston, MEngSci, MAdmin, FIA, FIAA & Andrew Burge, BSc(Hons),FIAA Richard Cumpston is a director of Cumpston Sarjeant Truslove Pty Ltd, consulting actuaries, Melbourne, and Andrew Burge is a senior market analyst at Tarong Energy Corporation, Brisbane. The Commonwealth government is developing a strategic plan for Australia's long term energy policy. This paper was written as background for an IAA submission to the government. It discusses: · How Australia’s demand for electricity is met now (83% from coal) · Capital and running costs of power generation · Greenhouse gas emission intensities · Current emission levels (96% from coal) · Commonwealth and state emission abatement measures · Expected increases in electricity demand (75% from 2000 to 2020) · Projected emission increases if increases are met by black coal (65% to 2020) · Emission increases using best current technology (28% to 2020) · The emissions trading regime recommended by the recent COAG review of the national energy market. Index 1. SUMMARY .............................................................................................................1 2. -
Development of a Comprehensive Decision Making Framework for Power Projects in New South Wales (NSW)
Development of a Comprehensive Decision Making Framework for Power Projects in New South Wales (NSW) AYSE TOPAL A dissertation submitted to the University of Technology, Sydney in fulfilment of the requirements for the degree of Doctor of Philosophy (Engineering) Energy Planning and Policy Centre Faculty of Engineering and Information Technology University of Technology, Sydney 2014 Certificate of Authorship I certify that the work in this thesis has not previously been submitted for a degree, nor has it been submitted as part of the requirements for a degree, except as fully acknowledged within the text. I also certify that the thesis has been written by me. Any help that I have received in my research work and the preparation of the thesis itself has been acknowledged. In addition, I certify that all information sources and literature used are indicated in the thesis. Signature of Candidate ___________________________ i Acknowledgements There are a number of people I would like to express my sincerest gratitude, who have supported me during my Ph.D. course. Firstly, I would like to sincerely thank my supervisor Prof. Deepak Sharma for his support, guidance and encouragement during the entire time of my PhD. His assistance during the entire time has provided me with an invaluable opportunity to finish my PhD course. I would like to express my gratitude to Mr. Ravindra Bagia, my co-supervisor, for providing guidance during my study. I would like to thank Dr Tripadri Prasad, for their guidance that helped to improve this study. I would like to give my special thanks to the Ministry of Education (MOE) from Turkey, where I received scholarship for my study. -
Cleaning up Coal Ash in Port Augusta
Done & Dusted? Cleaning up coal ash in Port Augusta March 2018 Contents Section 1: Executive Summary ....................................................... 3 Section 2: Introduction ................................................................. 5 Section 3: The Augusta Power Stations .......................................... 9 Section 4: Dust in the Wind ..........................................................14 Section 5: Best Practice Rehabilitation ..........................................17 Section 6: Conclusions and Recommendations ..............................21 References .................................................................................22 Disclaimer This report was prepared by Greenpeace Australia Pacific staff with technical advice provided by Murrang Earth Sciences. The research is based solely on publicly available information. Both the South Australia Environment Protection Authority (SA EPA) and Flinders Power were given an opportunity to comment on a draft of the report. The SA EPA provided useful feedback and clarified a number of important issues. Flinders Power responded only to reject the findings of the report and did not identify any specific factual errors. For more information contact: [email protected] Published March 2018 by: Greenpeace Australia Pacific Level 2, 33 Mountain Street Ultimo NSW 2007 Australia © 2018 Greenpeace greenpeace.org/australia Front cover image © Zoe Deans / Greenpeace Printed on 100% recycled post consumer paper. 1 Executive Summary On 22 April 2016, Australia signed the Paris Climate Agreement, which was designed to strengthen the United Nations Framework Convention on Climate Change (UNFCCC). To meet the objectives of this agreement, Australia will need to organise a phase out of both coal production and consumption assets. The speed of the transition to renewables is the subject of ongoing political contestation, but the fact that a transition is already occurring, and is ultimately inevitable (as the costs of renewable energy technologies fall), is not open for serious debate. -
Sustainable Regional Development and Innovation
Sustainable Regional Development and Innovation Karel Grezl BMet (Hons 1), ME, LLB Submitted for the degree of Doctor of Philosophy March 2007 I hereby certify that the work embodied in this thesis is the result of original research and has not been submitted for a higher degree to any other University or Institution. (Signed): ……………………………………… Table of Contents Page Abstract 4 1.0 Introduction 6 2.0 Literature Reviews 7 2.1 Sustainable regional development 7 2.2 Sustainability and sustainable development 16 2.3 Regions and regional development 29 2.4 Innovation 51 2.5 Literature reviews reveal conceptual inadequacies 62 2.6 Rationale for use and selection of regional case studies 63 3.0 Regional Case Studies 65 3.1 Italy’s regions 66 3.2 The UK’s regions 90 3.3 The Nelson Region of New Zealand 122 3.4 The Hunter Region of New South Wales, Australia 149 3.5 Synthesis 169 4.0 Discussion 175 4.1 Proving the thesis - not possible with current understanding 175 4.1.1 Breaking through: normative treatment of sustainability plus The Innovation Opportunity 176 4.1.1.1 Sustainable regional development explored 177 4.1.1.1.1 The chasm between ideals and metrics 178 4.1.1.1.2 The dilemma of regional boundaries 188 4.1.1.1.3 Informal economies usually ignored 193 4.1.1.1.4 Sustainable regional development explained 196 4.1.1.1.5 Rationale for inquiring further into innovation 197 4.1.1.2 Innovation revisited 198 4.1.1.2.1 Creativity acknowledged but necessarily ignored 198 4.1.1.2.2 Innovation mechanism mostly unknown 198 4.1.1.2.3 Philosophical -
WARKWORTH COAL MINE WEST PIT EXTENSION MODIFICATION (DA 300-9-2002-I MOD 6)
WARKWORTH COAL MINE WEST PIT EXTENSION MODIFICATION (DA 300-9-2002-i MOD 6) 1 BACKGROUND Warkworth Coal Mine Warkworth Mining Limited (Warkworth) operates the Warkworth Coal Mine, an existing open cut mine located approximately 9 kilometres southwest of Singleton in the Hunter Valley (see Figure 1). The mine has been operating for over 30 years, with operations commencing in April 1981. Figure 1: Location of Mount Thorley-Warkworth Mine Complex 1 Although they are in different ownership, since 2004, the Warkworth mine and adjacent Mount Thorley mine have been managed as a single integrated mining complex, known as Mount Thorley Warkworth (MTW). Under these arrangements, the mines share employees and surface infrastructure - and are now connected by a series of haul roads (with bridges over Putty Road) and pipelines. They also have highly inter-dependent mining operations with coal, overburden, tailings, and water being moved between the two mines. However, the two mines operate under separate development consents, with the Warkworth mine currently operating under a Ministerial consent granted on 19 May 2003 (DA 300-9-2002). The 2003 consent has since been modified on 5 occasions, including: • MOD 1 – approved on 19 October 2004, involving minor infrastructure changes to the coal and coal rejects bins, rejects conveyor and equipment storage; • MOD 2 – approved on 2 February 2007, involving correction of minor administrative errors related to land details; • MOD 3 – approved on 31 October 2007, involving upgrade of the electrical switchyard; • MOD 4 – approved on 15 September 2008, involving establishment of up to 6 gas wells and a range of associated infrastructure; and • MOD 5 – approved on 28 October 2009, involving relocation of ancillary infrastructure, including the explosives reloading station and vehicle wash bay. -
(NPI) Emission Estimation Techniques Manual for Fossil Fuel Electric
1DWLRQDO3ROOXWDQW,QYHQWRU\ Emission Estimation Technique Manual for Fossil Fuel Electric Power Generation First Published in March 1999 EMISSION ESTIMATION TECHNIQUES FOR FOSSIL FUEL ELECTRIC POWER GENERATION TABLE OF CONTENTS 1.0 INTRODUCTION ...............................................................................................1 2.0 PROCESS DESCRIPTION.................................................................................2 2.1 Steam Cycle Plant........................................................................................................... 3 2.1.1 Coal-Fired Steam Cycle .................................................................................. 4 2.1.2 Gas and Oil-Fired Steam Cycle ..................................................................... 4 2.2 Gas Turbine Cycle.......................................................................................................... 4 2.3 Cogeneration ................................................................................................................... 5 2.4 Internal Combustion (Stationary) Engines................................................................ 6 3.0 EMISSION SOURCES........................................................................................7 3.1 Emissions to Air.............................................................................................................. 7 3.2 Emissions to Water......................................................................................................... 8 3.3 Emissions -
Recovery Looks Like This. Immediate, Real-World Impacts of Supporting
Recovery looks like this. Immediate, real-world impacts of supporting Australia’s clean future industries. To accompany Bioenergy Australia’s recent proposal for a series of economic stimulus measures for clean energy and bio industries, we have gathered a sample of real-world projects to highlight prospective impacts of stimulus measures. These projects, identified by our members, are all shovel ready and can be quickly deployed under the right conditions. Queensland Glycell Biorefinery stage 1 The project: 100,000 dry tonne per year biomass input Estimated capital ~AUD$200 million Impact of stimulus: Support second generation technologies and provide momentum and funding to get the project progressed. Anticipated outcomes: » 60 direct plus 264 indirect jobs » GHG advantaged carbohydrate feedstocks for advance biofuels and/or chemicals. This leads to emissions reduction and valorisation of agricultural biomass streams not available today. 60 direct plus 264 indirect jobs Mt Alexander Bioenergy, community bioenergy project, VIC The project: Anticipated outcomes: 1MWe (biogas) and 6MWt (biomass) with capital cost » Approximately 22-30 jobs created for stage 1. of approx. $20m. This project embraces a circular » Annual emission reduction is 88,000 tCO2e (based on ARENA LCA methodology) for stage 1 economy approach with closed loop and zero waste design principles. It is a behind-the-meter project and increasing proportionately as stage 2 and 3 develop. for a large regional food processing facility (Dons) » Boosting regional economy, environmental outcomes through reduced waste to landfill, that employs around 1600 people. upskilling of staff, energy security and demonstrating how circular economy principles can be embodied and delivered via a closed loop model. -
Emission Estimation Technique Manual for Fossil Fuel Electric Power Generation, Report to the Electricity Supply Association of Australia, 2002
National Pollutant Inventory Emission estimation technique manual for Fossil Fuel Electric Power Generation Version 3.0 January 2012 First Published – March 1999 Version 3.0 – January 2012 ISBN: 0642 54932X © Commonwealth of Australia 2011 This Manual may be reproduced in whole or part for study or training purposes subject to the inclusion of an acknowledgment of the source. It may be reproduced in whole or part by those involved in estimating the emissions of substances for the purpose of National Pollutant Inventory (NPI) reporting. The Manual may be updated at any time. Reproduction for other purposes requires the written permission of: The Department of Sustainability, Environment, Water, Population and Communities, GPO Box 787, Canberra, ACT 2601, e-mail [email protected], website address www.npi.gov.au, or phone 1800 657 945. Disclaimer The Manual was prepared in conjunction with Australian States and Territories according to the National Environment Protection (National Pollutant Inventory) Measure 1998. While reasonable efforts have been made to ensure the contents of this Manual are factually correct, the Australian Government does not accept responsibility for the accuracy or completeness of the contents and shall not be liable for any loss or damage that may be occasioned directly or indirectly through the use of, or reliance on, the contents of this Manual. Fossil fuel electric power generation i Version 3.0 – January 2012 EMISSION ESTIMATION TECHNIQUES FOR FOSSIL FUEL ELECTRIC POWER GENERATION TABLE OF CONTENTS Disclaimer