2015 Renewable Energy Data Book Acknowledgments
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Science Based Coal Phase-Out Timeline for Japan Implications for Policymakers and Investors May 2018
a SCIENCE BASED COAL PHASE-OUT TIMELINE FOR JAPAN IMPLICATIONS FOR POLICYMAKERS AND INVESTORS MAY 2018 In collaboration with AUTHORS Paola Yanguas Parra Climate Analytics Yuri Okubo Renewable Energy Institute Niklas Roming Climate Analytics Fabio Sferra Climate Analytics Dr. Ursula Fuentes Climate Analytics Dr. Michiel Schaeffer Climate Analytics Dr. Bill Hare Climate Analytics GRAPHIC DESIGN Matt Beer Climate Analytics This publication may be reproduced in whole or in part and in any form for educational or non-profit services without special permission from Climate Analytics, provided acknowledgement and/or proper referencing of the source is made. No use of this publication may be made for resale or any other commercial purpose whatsoever without prior permission in writing from Climate Analytics. We regret any errors or omissions that may have been unwittingly made. This document may be cited as: Climate Analytics, Renewable Energy Institute (2018). Science Based Coal Phase-out Timeline for Japan: Implications for policymakers and investors A digital copy of this report along with supporting appendices is available at: www.climateanalytics.org/publications www.renewable-ei.org/activities/reports/20180529.html Cover photo: © xpixel In collaboration with SCIENCE BASED COAL PHASE-OUT TIMELINE FOR JAPAN IMPLICATIONS FOR POLICYMAKERS AND INVESTORS Photo © ImagineStock TABLE OF CONTENTS Executive summary 1 Introduction 5 1 Coal emissions in line with the Paris Agreement 7 2 Coal emissions in Japan 9 2.1 Emissions from current and planned -
Nuclear Power - Conventional
NUCLEAR POWER - CONVENTIONAL DESCRIPTION Nuclear fission—the process in which a nucleus absorbs a neutron and splits into two lighter nuclei—releases tremendous amounts of energy. In a nuclear power plant, this fission process is controlled in a reactor to generate heat. The heat from the reactor creates steam, which runs through turbines to power electrical generators. The most common nuclear power plant design uses a Pressurized Water Reactor (PWR). Water is used as both neutron moderator and reactor coolant. That water is kept separate from the water used to generate steam and drive the turbine. In essence there are three water systems: one for converting the nuclear heat to steam and cooling the reactor; one for the steam system to spin the turbine; and one to convert the turbine steam back into water. The other common nuclear power plant design uses a Boiling Water Reactor (BWR). The BWR uses water as moderator and coolant, like the PWR, but has no separate secondary steam cycle. So the water from the reactor is converted into steam and used to directly drive the generator turbine. COST Conventional nuclear power plants are quite expensive to construct but have fairly low operating costs. Of the four new plants currently under construction, construction costs reportedly range from $4.7 million to $6.3 million per MW. Production costs for Palo Verde Nuclear Generating Station are reported to be less than $15/MWh. CAPACITY FACTOR Typical capacity factor for a nuclear power plant is over 90%. TIME TO PERMIT AND CONSTRUCT Design, permitting and construction of a new conventional nuclear power plant will likely require a minimum of 10 years and perhaps significantly longer. -
A Simple and Fast Algorithm for Estimating the Capacity Credit of Solar and Storage
Electricity Markets & Policy Energy Analysis & Environmental Impacts Division Lawrence Berkeley National Laboratory A Simple and Fast Algorithm for Estimating the Capacity Credit of Solar and Storage Andrew D. Mills and Pía Rodriguez July 2020 This is a pre-print version of an article published in Energy. DOI: https://doi.org/10.1016/j.energy.2020.118587 This work was supported by the U.S. Department of Energy’s Office of Energy Efficiency and Renewable Energy (EERE) under the Solar Energy Technology Office under Lawrence Berkeley National Laboratory Contract No. DE-AC02-05CH11231. DISCLAIMER This document was prepared as an account of work sponsored by the United States Government. While this document is believed to contain correct information, neither the United States Government nor any agency thereof, nor The Regents of the University of California, nor any of their employees, makes any warranty, express or implied, or assumes any legal 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 its 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, or The Regents of the University of California. The views and opinions of authors expressed herein do not necessarily state or reflect those of the United States Government or any agency thereof, or The Regents of the University of California. Ernest Orlando Lawrence Berkeley National Laboratory is an equal opportunity employer. -
Wind Energy Technology Data Update: 2020 Edition
Wind Energy Technology Data Update: 2020 Edition Ryan Wiser1, Mark Bolinger1, Ben Hoen, Dev Millstein, Joe Rand, Galen Barbose, Naïm Darghouth, Will Gorman, Seongeun Jeong, Andrew Mills, Ben Paulos Lawrence Berkeley National Laboratory 1 Corresponding authors August 2020 This work was funded by the U.S. Department of Energy’s Wind Energy Technologies Office, under Contract No. DE-AC02-05CH11231. The views and opinions of the authors expressed herein do not necessarily state or reflect those of the United States Government or any agency thereof, or The Regents of the University of California. Photo source: National Renewable Energy Laboratory ENERGY T ECHNOLOGIES AREA ENERGY ANALYSISAND ENVIRONMENTAL I MPACTS DIVISION ELECTRICITY M ARKETS & POLICY Disclaimer This document was prepared as an account of work sponsored by the United States Government. While this document is believed to contain correct information, neither the United States Government nor any agency thereof, nor The Regents of the University of California, nor any of their employees, makes any warranty, express or implied, or assumes any legal 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 its 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, or The Regents of the University of California. The views and opinions of authors expressed herein do not necessarily state or reflect those of the United States Government or any agency thereof, or The Regents of the University of California. -
Bioenergy's Role in Balancing the Electricity Grid and Providing Storage Options – an EU Perspective
Bioenergy's role in balancing the electricity grid and providing storage options – an EU perspective Front cover information panel IEA Bioenergy: Task 41P6: 2017: 01 Bioenergy's role in balancing the electricity grid and providing storage options – an EU perspective Antti Arasto, David Chiaramonti, Juha Kiviluoma, Eric van den Heuvel, Lars Waldheim, Kyriakos Maniatis, Kai Sipilä Copyright © 2017 IEA Bioenergy. All rights Reserved Published by IEA Bioenergy IEA Bioenergy, also known as the Technology Collaboration Programme (TCP) for a Programme of Research, Development and Demonstration on Bioenergy, functions within a Framework created by the International Energy Agency (IEA). Views, findings and publications of IEA Bioenergy do not necessarily represent the views or policies of the IEA Secretariat or of its individual Member countries. Foreword The global energy supply system is currently in transition from one that relies on polluting and depleting inputs to a system that relies on non-polluting and non-depleting inputs that are dominantly abundant and intermittent. Optimising the stability and cost-effectiveness of such a future system requires seamless integration and control of various energy inputs. The role of energy supply management is therefore expected to increase in the future to ensure that customers will continue to receive the desired quality of energy at the required time. The COP21 Paris Agreement gives momentum to renewables. The IPCC has reported that with current GHG emissions it will take 5 years before the carbon budget is used for +1,5C and 20 years for +2C. The IEA has recently published the Medium- Term Renewable Energy Market Report 2016, launched on 25.10.2016 in Singapore. -
State Attorneys General: Empowering the Clean Energy Future
Copyright © 2019 by the State Energy and Environmental Impact Center. All rights reserved. State Energy and Environmental Impact Center NYU School of Law https://www.law.nyu.edu/centers/state-impact The primary authors of this report are Jessica R. Bell, Clean Energy Attorney at the State Energy and Environmental Impact Center, and Hampden Macbeth, Staff Attorney at the State Energy and Environmental Impact Center. The authors and the Center are grateful for the research contributions of Ryan Levandowski, a student at the Georgetown University Law Center, and Maggie St. Jean, a student at the Elisabeth Haub School of Law at Pace University. This report does not necessarily reflect the views of NYU School of Law, if any. Executive Summary ........................................................................................................ 1 Section I. Overview of the Role of Attorney General Activities in Energy Matters ............................................................ 5 Protecting States’ Energy Rights ................................................................................... 5 Background .................................................................................................................... 5 Mutual Accommodation of Federal and State Energy Rights .............................. 6 Defending States’ Rights Against Preemption and Dormant Commerce Clause Claims .......................................................................................... 7 Defending States’ Rights Against Discriminatory Federal -
Renewable Energy Generator Output – Sample Calculations
Net Metering Program Highlights Net metering will be available to new customers until the size of the program reaches 1% of the electric provider’s previous year system peak in MW. The 1% will be measured against the total of the generator nameplate capacities for all participating customer’s generators and is split into the following tiers: (1) 0.5% for ≤ 20 kW True Net Metering This tier will include almost all residential customers. • Billing is based on net usage. • Customer receives the full retail rate for all excess kWh. • Utility shall use the customer’s existing meter if it is capable of reverse registration (spinning backwards) or install an upgraded meter at no additional cost to the net metering customer. • Utilities with fewer than 1,000,000 customers shall charge net metering customers at cost for an upgraded meter if the customer’s existing meter is not capable of reverse registration (spinning backwards). • A generator meter shall be provided at cost, if requested by the customer. (The generator meter is for the customer’s benefit. Utilities are not obligated to read a customer’s generator meter.) • No interconnection costs (beyond the combined $100 interconnection/net metering application fees), study fees, testing or inspection charges. • Net metering credits carry forward indefinitely. (2) 0.25% for >20 kW up to 150 kW Modified Net Metering • Customers pay full retail rate for electricity deliveries from the utility and receive the generation portion of the retail rate or a wholesale rate for deliveries to the grid. • No charge for the engineering review. • Customers pay all interconnection costs, distribution study fees and any network upgrade costs. -
Electric Transmission and Distribution Equipment Use
Electric Transmission and Distribution Equipment Use Final Rule: Mandatory Reporting of Greenhouse Gases (40 CFR 98, Subpart DD) Under the final Mandatory Reporting Rule for Additional Sources of Fluorinated Greenhouse Gases (GHGs), owners and operators of electric power system facilities with a total nameplate capacity that exceeds 17,820 lbs (7,838 kg) of sulfur hexafluoride (SF6) and/or perfluorocarbons (PFCs) must report emissions of SF6 and/or PFCs from the use of electrical transmission and distribution equipment. Owners or operators must collect emissions data, calculate GHG emissions, and follow the specified procedures for quality assurance, missing data, recordkeeping, and reporting. How Is This Source Category Defined? The electrical transmission and distribution equipment use source category consists of all electric transmission and distribution equipment and servicing inventory insulated with or containing SF6 or PFCs used within an electric power system. This equipment includes but is not limited to gas-insulated substations; circuit breakers; switchgear, including closed-pressure and hermatically sealed-pressure switchgear; gas-insulated lines containing SF6 or PFCs; gas containers such as pressurized cylinders; gas carts; electric power transformers; and other containers of SF6 or PFC. For the purposes of this subpart, facility is defined as the electric power system, comprising all electric transmission and distribution equipment insulated with or containing SF6 or PFCs that is linked through electric power transmission -
Renewable Power Generation Costs in 2019: Latest Trends and Drivers
WEBINAR SERIES Renewable Power Generation Costs in 2019: Latest Trends and Drivers • Michael Taylor, Renewable Cost Status and Outlook team, IRENA TUESDAY, 9 JUNE 2020 • 15:00 – 15:30 CEST WEBINAR SERIES TechTips • Share it with others or listen to it again ➢ Webinars are recorded and will be available together with the presentation slides on #IRENAinsights website https://irena.org/renewables/Knowledge- Gateway/webinars/2020/Jan/IRENA-insights WEBINAR SERIES TechTips • Ask the Question ➢ Select “Question” feature on the webinar panel and type in your question • Technical difficulties ➢ Contact the GoToWebinar Help Desk: 888.259.3826 or select your country at https://support.goto.com/webinar Renewable Power: The True Costs Michael Taylor Senior Analyst, IITC IRENA Costing Analysis Products 2012 2013 2015 2016 2017 2018 2019 2020 5 Costs continuing to fall for RE, solar & wind power in particular In most parts of world RE least-cost source of new electricity: ► 56% of utility-scale capacity added in 2019 cost less than cheapest new coal option Will increasingly undercut even operating costs of existing coal Cost reductions for solar wind are coming from: ► improved technology, economies of scale, more competitive supply chains and developer experience Power generation and PPA/tender databases PPA/Auction database ~11k projects 496 GW Project cost database ~18k projects 7 1775 GW Recent cost evolution • AverageCost reductions LCOE ofcontinue all renewable to 2021/23 power generation technologies, except CSP fall • inUtility fossil-scale -
Demand Side Management Effects on Substation Transformer Capacity
applied sciences Article Demand Side Management Effects on Substation Transformer Capacity Limits Kerry D. McBee, Jacquelyn Chong and Prasanth Rudraraju * Department of Electrical and Computer Engineering, California State University, Fresno, CA 93740, USA * Correspondence: [email protected] Received: 24 June 2019; Accepted: 7 August 2019; Published: 9 August 2019 Featured Application: The research provides insight into the effects that high penetrations of photovoltaic (PV) systems, energy storage (ES) applications, and electric vehicle (EV) charging systems will have on substation transformer capacity ratings. The manuscript identifies how these applications change the operational conditions of a transformer to the point where capacity ratings (normal and emergency) should be adjusted to account for the additional internal heating in the windings and oil. The research also identifies how harmonic distortion induced by PV, ES, and EV charging equipment affects capacity ratings. The results of the analysis are utilized to describe mitigating approaches for existing units and new units being designed. The approaches are applied to the design attributes of a 50 MVA SPX Waukesha transformer. Abstract: In high penetrations, demand side management (DMS) applications augment a substation power transformer’s load profile, which can ultimately affect the unit’s capacity limits. Energy storage (ES) applications reduce the evening peaking demand, while time-of-use rates incentivize end-users to charge electric vehicles overnight. The daily load profile is further augmented by high penetrations of photovoltaic (PV) systems, which reduce the midday demand. The resulting load profile exhibits a more flattened characteristic when compared to the historical cyclic profile. Although the initial impact of PV and ES applications may reduce a unit’s peak demand, long-term system planning and emergency conditions may require operation near or above the nameplate rating. -
SDRC 4 Learning Generated from the Openlv Project Trials by Method 1
SDRC 4 Learning Generated from the OpenLV Project trials by Method 1. SDRC 4 LEARNING GENERATED FROM THE OPENLV PROJECT TRIALS Report Title : SDRC 4 - Learning Generated from the OpenLV Project trials by all Method 1.. Report Status : Final Draft for Review Project Ref : WPD/EN/NIC/02 - OpenLV Date : 31.01.20 Document Control Name Date Prepared by: T. Butler, K. Platt, P. 24.01.20 Morris & R. Burns Reviewed by: D. Russell & S Rossi 24.01.20 Ashton Recommended by: D. Roberts & J. Berry 27.01.20 Approved (WPD): A. Sleightholm WPD 31.01.20 Resources and External Affairs Director Revision History Date Issue Status 24.01.20 3 Draft for Review 31.01.20 3.1 For Issue Page 2 of 76 SDRC 4 LEARNING GENERATED FROM THE OPENLV PROJECT TRIALS Contents Executive Summary ....................................................................................................................... 7 Key Findings .................................................................................................................................. 8 1 Introduction ........................................................................................................................... 9 1.1 Project Background...................................................................................................... 9 1.1.1 Method 1: Network Capacity Uplift .................................................................. 9 1.1.2 Method 2: Community Engagement ................................................................. 10 1.1.3 Method 3: OpenLV Extensibility ....................................................................... -
ISO New England Overview and Regional Update
MARCH 3, 2021 ISO New England Overview and Regional Update Kerry Schlichting EXTERNAL AFFAIRS Eric Johnson DIRECTOR, EXTERNAL AFFAIRS ISO-NE PUBLIC ISO New England (ISO) Has More Than Two Decades of Experience Overseeing the Region’s Restructured Electric Power System • Regulated by the Federal Energy Regulatory Commission • Reliability Coordinator for New England under the North American Electric Reliability Corporation • Independent of companies in the marketplace and neutral on technology ISO-NE PUBLIC 2 ISO New England Performs Three Critical Roles to Ensure Reliable Electricity at Competitive Prices Grid Market Power System Operation Administration Planning Coordinate and direct Design, run, and Study, analyze, and the flow of electricity oversee the markets plan to make sure New over the region’s where wholesale England's electricity high-voltage electricity is bought needs will be met over transmission system and sold the next 10 years ISO-NE PUBLIC 3 Numerous Entities Including an Independent Board Provide Oversight of and Input on ISO’s Responsibilities ISO-NE PUBLIC 4 New England’s Power Grid Is Part of a Larger Electric Power System • Part of the Eastern Interconnection, one of four large power grids in North America – Interconnected through primarily alternating current (AC) transmission • Tied to Québec only through direct current (DC) transmission • 2003 blackout ushered in wide-area monitoring and mandatory reliability standards • Subject to reliability standards set by NERC and NPCC* * North American Electric Reliability