Taxes and Incentives for Renewable Energy
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Tax Appeals Rules Procedures
Tax Appeals Tribunal Rules & Procedures The rules of the game February 2017 Glossary of terms KRA Kenya Revenue Authority TAT Tax Appeals Tribunal TATA Tax Appeals Tribunal Act TPA Tax Procedures Act VAT Value Added Tax 2 © Deloitte & Touche 2017 Definition of terms Tax decision means: a) An assessment; Tax law means: b) A determination of tax payable made to a a) The Tax Procedures Act; trustee-in-bankruptcy, receiver, or b) The Income Tax Act, Value Added liquidator; Tax Act, and Excise Duty Act; and c) A determination of the amount that a tax c) Any Regulations or other subsidiary representative, appointed person, legislation made under the Tax director or controlling member is liable Procedures Act or the Income Tax for under specified sections in the TPA; Act, Value Added Tax Act, and Excise d) A decision on an application by a Duty Act. taxpayer to amend their self-assessment return; Objection decision means: e) A refund decision; f) A decision requiring repayment of a The Commissioner’s decision either to refund; or allow an objection in whole or in part, or g) A demand for a penalty. disallow it. Appealable decision means: a) An objection decision; and b) Any other decision made under a tax law but excludes– • A tax decision; or • A decision made in the course of making a tax decision. 3 © Deloitte & Touche 2017 Pre-objection process; management of KRA Audit KRA Audit Notes The TPA allows the Commissioner to issue to • The KRA Audits are a tax payer a default assessment, amended undertaken by different assessment or an advance assessment departments of the KRA that (Section 29 to 31 TPA). -
Microgeneration Potential in New Zealand
Prepared for Parliamentary Commissioner for the Environment Microgeneration Potential in New Zealand A Study of Small-scale Energy Generation Potential by East Harbour Management Services ISBN: 1-877274-33-X May 2006 Microgeneration Potential in New Zealand East Harbour Executive summary The study of the New Zealand’s potential for micro electricity generation technologies (defined as local generation for local use) in the period up to 2035 shows that a total of approximately 580GWh per annum is possible within current Government policies. If electricity demand modifiers (solar water heating, passive solar design, and energy efficiency) are included, there is approximately an additional 15,800GWh per annum available. In total, around 16,400GWh of electricity can be either generated on-site, or avoided by adopting microgeneration of energy services. The study has considered every technology that the authors are aware of. However, sifting the technologies reduced the list to those most likely to be adopted to a measurable scale during the period of the study. The definition of micro electricity generation technologies includes • those that generate electricity to meet local on-site energy services, and • those that convert energy resources directly into local energy services, such as the supply of hot water or space heating, without the intermediate need for electricity. The study has considered the potential uptake of each technology within each of the periods to 2010, 2020, and 2035. It also covers residential energy services and those services for small- to medium-sized enterprises (SMEs) that can be obtained by on-site generation of electricity or substitution of electricity. -
An Overview of the State of Microgeneration Technologies in the UK
An overview of the state of microgeneration technologies in the UK Nick Kelly Energy Systems Research Unit Mechanical Engineering University of Strathclyde Glasgow Drivers for Deployment • the UK is a signatory to the Kyoto protocol committing the country to 12.5% cuts in GHG emissions • EU 20-20-20 – reduction in EU greenhouse gas emissions of at least 20% below 1990 levels; 20% of all energy consumption to come from renewable resources; 20% reduction in primary energy use compared with projected levels, to be achieved by improving energy efficiency. • UK Climate Change Act 2008 – self-imposed target “to ensure that the net UK carbon account for the year 2050 is at least 80% lower than the 1990 baseline.” – 5-year ‘carbon budgets’ and caps, carbon trading scheme, renewable transport fuel obligation • Energy Act 2008 – enabling legislation for CCS investment, smart metering, offshore transmission, renewables obligation extended to 2037, renewable heat incentive, feed-in-tariff • Energy Act 2010 – further CCS legislation • plus more legislation in the pipeline .. Where we are in 2010 • in the UK there is very significant growth in large-scale renewable generation – 8GW of capacity in 2009 (up 18% from 2008) – Scotland 31% of electricity from renewable sources 2010 • Microgeneration lags far behind – 120,000 solar thermal installations [600 GWh production] – 25,000 PV installations [26.5 Mwe capacity] – 28 MWe capacity of CHP (<100kWe) – 14,000 SWECS installations 28.7 MWe capacity of small wind systems – 8000 GSHP systems Enabling Microgeneration -
Two-Stage Radial Turbine for a Small Waste Heat Recovery
energies Article Two-Stage Radial Turbine for a Small Waste Heat y Recovery Organic Rankine Cycle (ORC) Plant Ambra Giovannelli *, Erika Maria Archilei and Coriolano Salvini Department of Engineering, University of Roma Tre, Via della Vasca Navale, 79, 00146 Rome, Italy; [email protected] (E.M.A.); [email protected] (C.S.) * Correspondence: [email protected]; Tel.: +39-06-57333424 This work is an extended version of the paper presented at the 5th International Conference on Energy and y Environment Research ICEER 22–25 July 2019 held in Aveiro, Portugal and published in Energy Reports. Received: 21 January 2020; Accepted: 24 February 2020; Published: 27 February 2020 Abstract: Looking at the waste heat potential made available by industry, it can be noted that there are many sectors where small scale (< 100 kWe) organic Rankine cycle (ORC) plants could be applied to improve the energy efficiency. Such plants are quite challenging from the techno-economic point of view: the temperature of the primary heat source poses a low cutoff to the system thermodynamic efficiency. Therefore, high-performance components are needed, but, at the same time, they have to be at low cost as possible to assure a reasonable payback time. In this paper, the design of a two-stage radial in-flow turbine for small ORC industrial plants is presented. Compared to commonly applied mono-stage expanders (both volumetric and dynamic), this novel turbine enables plants to exploit higher pressure ratios than conventional plants. Thus, the theoretical limit to the cycle efficiency is enhanced with undoubted benefits on the overall ORC plant performance. -
Putting Clean Tech on a Path to Subsidy Independence
APRIL 2012 BE YOND BOOM & BUST PUTTING CLEAN TECH ON A PATH TO SUBSIDY INDEPENDENCE Jesse Jenkins, Director of Energy and Climate Policy, Breakthrough Institute Mark Muro, Senior Fellow, Metropolitan Policy Program, Brookings Institution Ted Nordhaus and Michael Shellenberger, Cofounders, Breakthrough Institute Letha Tawney, Senior Associate, World Resources Institute Alex Trembath, Policy Associate, Breakthrough Institute APRIL 2012 BE YOND BOOM & BUST PUTTING CLEAN TECH ON A PATH TO SUBSIDY INDEPENDENCE Jesse Jenkins, Director of Energy and Climate Policy, Breakthrough Institute Mark Muro, Senior Fellow, Metropolitan Policy Program, Brookings Institution Ted Nordhaus and Michael Shellenberger, Cofounders, Breakthrough Institute Letha Tawney, Senior Associate, World Resources Institute Alex Trembath, Policy Associate, Breakthrough Institute INSTITUTIONAL AFFILIATIONS LISTED FOR IDENTIFICATION PURPOSES ONLY APRIL 2012 CONTENTS 3 EXECUTIVE SUMMARY g CONTENTS f 4 EXECUTIVE SUMMARY 4 Key Recommendations for a New Era of Clean Energy Policy 8g Key Recommendations for a New Era of Clean Energy Policy 8 PART 1: FROM CLEAN TECH BOOM TO FEDERAL SPENDING BUST 1g2 PART 1: FROM CLEAN TECH BOOM TO FEDERAL SPENDING BUST Methodology 1g5 12 Methodology 15 Analysis of Federal Clean Tech Spending, 2009 to 2014 1g6 Analysis of Federal Clean Tech Spending, 2009 to 2014 16 The Federal Clean Tech Funding Cliff 1g9 The Federal Clean Tech Funding Cliff 19 What’s Left After 2014? 2g2 What’s Left After 2014? 22 PART 2: CLEAN TECH MARKET IMPACTS 2g3 PART 2: Wind -
Carbon Price Floor Consultation: the Government Response
Carbon price floor consultation: the Government response March 2011 Carbon price floor consultation: the Government response March 2011 Official versions of this document are printed on 100% recycled paper. When you have finished with it please recycle it again. If using an electronic version of the document, please consider the environment and only print the pages which you need and recycle them when you have finished. © Crown copyright 2011 You may re-use this information (not including logos) free of charge in any format or medium, under the terms of the Open Government Licence. To view this licence, visit http://www.nationalarchives.gov.uk/doc/open- government-licence/ or write to the Information Policy Team, The National Archives, Kew, London TW9 4DU, or e-mail: [email protected]. ISBN 978-1-84532-845-0 PU1145 Contents Page Foreword 3 Executive summary 5 Chapter 1 Government response to the consultation 7 Chapter 2 The carbon price floor 15 Annex A Contributors to the consultation 21 Annex B HMRC Tax Impact and Information Note 25 1 Foreword Budget 2011 re-affirmed our aim to be the greenest Government ever. The Coalition’s programme for Government set out our ambitious environmental goals: • introducing a floor price for carbon • increasing the proportion of tax revenues from environmental taxes • making the tax system more competitive, simpler, fairer and greener This consultation response demonstrates the significant progress the Coalition Government has already made towards these goals. As announced at Budget 2011, the UK will be the first country in the world to introduce a carbon price floor for the power sector. -
Geothermal Power and Interconnection: the Economics of Getting to Market David Hurlbut
Geothermal Power and Interconnection: The Economics of Getting to Market David Hurlbut NREL is a national laboratory of the U.S. Department of Energy, Office of Energy Efficiency & Renewable Energy, operated by the Alliance for Sustainable Energy, LLC. Technical Report NREL/TP-6A20-54192 April 2012 Contract No. DE-AC36-08GO28308 Geothermal Power and Interconnection: The Economics of Getting to Market David Hurlbut Prepared under Task No. WE11.0815 NREL is a national laboratory of the U.S. Department of Energy, Office of Energy Efficiency & Renewable Energy, operated by the Alliance for Sustainable Energy, LLC. National Renewable Energy Laboratory Technical Report 15013 Denver West Parkway NREL/TP-6A20-54192 Golden, Colorado 80401 April 2012 303-275-3000 • www.nrel.gov Contract No. DE-AC36-08GO28308 NOTICE This report was prepared as an account of work sponsored by an agency of the United States government. Neither the United States government nor any agency thereof, nor any of their employees, makes any warranty, express or implied, or assumes any legal liability or responsibility for the accuracy, completeness, or usefulness of any information, apparatus, product, or process disclosed, or represents that its use would not infringe privately owned rights. Reference herein to any specific commercial product, process, or service by trade name, trademark, manufacturer, or otherwise does not necessarily constitute or imply its endorsement, recommendation, or favoring by the United States government or any agency thereof. The views and opinions of authors expressed herein do not necessarily state or reflect those of the United States government or any agency thereof. Available electronically at http://www.osti.gov/bridge Available for a processing fee to U.S. -
The Digital Energy System 4.0
The Digital Energy System 4.0 2016 May 2016 Authors and Contributors: Main authors: Pieter Vingerhoets, Working Group coordinator Maher Chebbo, ETP SG Digital Energy Chair Nikos Hatziargyriou, Chairman ETP Smart Grids Authors of use cases: Authors Company Chapters E-mail Project Georges Kariniotakis Mines-Paritech 3.2 [email protected] Anemos/Safewind Rory Donnelly 3E 3.1. [email protected] SWIFT Steven de Boeck Energyville, 4.1. [email protected] iTesla KU Leuven Anna-Carin Schneider RWE 4.2. [email protected] GRID4EU Anderskim Johansson Vattenfall 4.3 [email protected] GRID4EU Stephane Dotto SAP 4.4. [email protected] SAP view Nikos Hatziargyriou NTUA 4.5, [email protected] NOBEL grid, 5.1., SmarterEMC2, 6.2. Smarthouse Smartgrid Paul Hickey ESB 4.6. [email protected] Servo Antonello Monti RWTH Aachen 6.3, [email protected] FINESCE, 6.4., IDE4L, 7.1. COOPERATE Pieter Vingerhoets Energyville 6.1. [email protected] Linear KU Leuven Nina Zalaznik, Cybergrid 7.2., [email protected] eBadge, Sasha Bermann 7.3. Flexiciency Marcel Volkerts USEF 7.4. [email protected] USEF Speakers on the digitalization workshop: Rolf Riemenscheider (European Commission), Patrick Van Hove (European Commission), Antonello Monti (Aachen University), Joachim Teixeira (EDP), Alessio Montone (ENEL), Paul Hickey (ESB), Tom Raftery (Redmonk), Svend Wittern (SAP), Jean-Luc Dormoy (Energy Innovator). ETP experts and reviewers: Venizelos Efthymiou, George Huitema, Fernando Garcia Martinez, Regine Belhomme, Miguel Gaspar, Joseph Houben, Marcelo Torres, Amador Gomez Lopez, Jonathan Leucci, Jochen Kreusel, Gundula Klesse, Ricardo Pastor, Artur Krukowski, Peter Hermans. -
A New Era for Wind Power in the United States
Chapter 3 Wind Vision: A New Era for Wind Power in the United States 1 Photo from iStock 7943575 1 This page is intentionally left blank 3 Impacts of the Wind Vision Summary Chapter 3 of the Wind Vision identifies and quantifies an array of impacts associated with continued deployment of wind energy. This 3 | Summary Chapter chapter provides a detailed accounting of the methods applied and results from this work. Costs, benefits, and other impacts are assessed for a future scenario that is consistent with economic modeling outcomes detailed in Chapter 1 of the Wind Vision, as well as exist- ing industry construction and manufacturing capacity, and past research. Impacts reported here are intended to facilitate informed discus- sions of the broad-based value of wind energy as part of the nation’s electricity future. The primary tool used to evaluate impacts is the National Renewable Energy Laboratory’s (NREL’s) Regional Energy Deployment System (ReEDS) model. ReEDS is a capacity expan- sion model that simulates the construction and operation of generation and transmission capacity to meet electricity demand. In addition to the ReEDS model, other methods are applied to analyze and quantify additional impacts. Modeling analysis is focused on the Wind Vision Study Scenario (referred to as the Study Scenario) and the Baseline Scenario. The Study Scenario is defined as wind penetration, as a share of annual end-use electricity demand, of 10% by 2020, 20% by 2030, and 35% by 2050. In contrast, the Baseline Scenario holds the installed capacity of wind constant at levels observed through year-end 2013. -
MANUFACTURING AGENDA a National Blueprint for Clean Technology Manufacturing Leadership and Industrial Transformation CONTENTS
MANUFACTURING AGENDA A National Blueprint for Clean Technology Manufacturing Leadership and Industrial Transformation CONTENTS Executive Summary 2 Overarching Objectives 4 MANUFACTURING AGENDA 6 PILLAR 1: Invest at Scale in a New Generation of American Manufacturing 6 PILLAR 2: Innovate to Transform Industry 11 PILLAR 3: Responsibly Mine, Reclaim, and Recycle Critical Materials 14 PILLAR 4: Use Public Investment Wisely to Build a Strong, Clean, Fair Manufacturing Economy Across America 16 PILLAR 5: Change the Rules to Build a Clean Economy that Works for All 20 Glossary of Key Concepts and Terms 23 Endnotes iii Cover photo by: Sam VarnHagen, courtesy of Ford Motor Company EXECUTIVE SUMMARY Introduction The U.S. can once again lead the world in manufacturing the technologies and products of the future. As an integral part of an aggressive strategy to address the climate emergency head on—and in line with achieving net zero emissions economy-wide by 2050—we have the opportunity to modernize and transform our industrial base to make it the cleanest and most advanced in the world, while spurring the creation of a new generation of good, safe jobs manufacturing clean technology. This industrial transformation can bring dynamic industries back to communities that have been left behind by deindustrialization and under-investment, and provide a starting point for broadly shared growth and prosperity. Last year, the BlueGreen Alliance—alongside our labor central role in the balance of U.S. imports and exports— and environmental partners—released Solidarity for and the jobs that go with them. Manufacturing also Climate Action, an ambitious, concrete platform to has the proven ability to provide pathways into the address the crises of climate change and economic and middle class for millions of workers and families, and to racial inequality simultaneously.1 support millions of high-skill, high-wage jobs. -
The Economics of Solar Power
The Economics of Solar Power Solar Roundtable Kansas Corporation Commission March 3, 2009 Peter Lorenz President Quanta Renewable Energy Services SOLAR POWER - BREAKTHROUGH OR NICHE OPPORTUNITY? MW capacity additions per year CAGR +82% 2000-08 Percent 5,600-6,000 40 RoW US 40 +43% Japan 10 +35% 2,826 Spain 55 1,744 1,460 1,086 598 Germany 137 241 372 427 2000 01 02 03 04 05 06 07 2008E Demand driven by attractive economics • Strong regulatory support • Increasing power prices • Decreasing solar system prices • Good availability of capital Source: McKinsey demand model; Solarbuzz 1 WE HAVE SEEN SOME INTERESTING CHANGES IN THE U.S. RECENTLY 2 TODAY’S DISCUSSION • Solar technologies and their evolution • Demand growth outlook • Perspectives on solar following the economic crisis 3 TWO KEY SOLAR TECHNOLOGIES EXIST Photovoltaics (PV) Concentrated Solar Power (CSP) Key • Uses light-absorbing material to • Uses mirrors to generate steam characteristics generate current which powers turbine • High modularity (1 kW - 50 MW) • Low modularity (20 - 300 MW) • Uses direct and indirect sunlight – • Only uses direct sunlight – specific suitable for almost all locations site requirements • Incentives widely available • Incentives limited to few countries • Mainly used as distributed power, • Central power only limited by some incentives encourage large adequate locations and solar farms transmission access ~ 10 Global capacity ~ 0.5 GW, 2007 Source: McKinsey analysis; EPIA; MarketBuzz 4 THESE HAVE SEVERAL SUB-TECHNOLOGIES Key technologies Sub technologiesDescription -
The Essential Guide to Small Scale Combined Heat and Power
The essential guide to small scale February 2018 combined heat and power The answer to all your combined heat and power questions in one, easy to read guide... Centrica Business Solutions The essential guide to combined heat and power Contents What is combined heat and power? 4 • About Centrica Business Solutions • Introduction to combined heat and power • Combined heat and power applications • Fuel options • Benefits of combined heat and power Economics of combined heat and power 6 • Stages of feasibility • CHP quality index • CHP selection • Site review to determine actual installation costs Financing the CHP project 10 • Discount energy purchase (DEP) • Capital purchase scheme • Energy savings agreement (ESAs) Integrating CHP into a building 11 • Low temperature hot water systems • Steam systems • Absorption cooling systems CHP technology 12 • The equipment • E-POWER Typical case studies 15 • Alton Towers • Newcastle United • Royal Stoke University Hospital Glossary of terms 18 CIBSE accredited CPD courses 19 Useful contacts and further information 20 2 Centrica Business Solutions ThePanoramic essential Power guide in to action combined heat and power About Centrica Business Solutions With over 30 years’ experience, more than 3,000 units manufactured and an amazing 27 millions tonnes of CO2 saved by our customers, Centrica Business Solutions are the largest provider of small scale CHP units in the U.K. We understand the power of power. As new energy sources and technologies emerge, and power becomes decentralised, we’re helping organisations around the world use the freedom this creates to achieve their objectives. We provide insights, expertise and solutions to enable them to take control of energy and gain competitive advantage – powering performance, resilience and growth.