Showing posts with label battery. Show all posts
Showing posts with label battery. Show all posts

Energy Storage Market Overview and Forecasts

The stored energy market has grown exponentially but this is nothing compared to what we can expect to see in the coming years. Massive growth is expected all around the world and this will contribute to an exponential increase in distributed power in developed nations. This will also allow developing nations to forego the need for a expensive investments in grid infrastructure.

The combination of increasing-efficiency and decreasing-cost will keep driving demand for energy storage in 2017 and beyond.

Lithium-ion

Lithium-ion technologies accounted for more than 95 percent of new energy-storage deployments in 2015. There is no reason to believe that this trend will not continue. Given all the options on the table lithium-ion batteries have proven to be the most suitable type of storage for EVs and stationary energy across the grid, from large utility-scale installations to residential systems.

Although most insiders suggest that the battery storage space will continue to be dominated by lithium-ion technologies there is still the very real possibility that some novel storage configuration will emerge.

As explained by Matt Roberts, executive director of the ESA, "Global trends are feeding into that…partly because major applications of today lend themselves to batteries. Equally, lithium-ion dominates on account of cost; but it has reached that cost because of demand driving production."

Cost

Affordable storage is the missing link in intermittent renewable power. The cost per kilowatt-hour  (kWh) is currently around $300 but it was $1,000 in 2010. According to some estimates costs could be $160 per kWh or less by 2025 and even cheaper thereafter.

As reported in a Renewable Energy World review of the storage market, Bloomberg New Energy Finance expects battery technology to fall to $120 per kWh by 2030.

We are seeing decreasing costs and increasing density in both the stationary energy storage sector and EVs. The release of the Model 3 is a signal that this trend will continue to drive growth. A report in Ward’s Auto says EV battery prices are falling faster than expected and could be lower than $100 per kWh by 2020.

Global

In 2014 NEC Energy Solutions predicted that energy storage would be worth $20 billion by 2020.  Others expect the lithium-ion battery sector will be worth $54 billion by 2024.

Alex Eller, a research analyst at Navigant Research says that in 2017 he expects to see the global market grow 47 percent over the record set in 2016. Through 2020, Navigant forecasts over 29.4 GW of new storage capacity to be deployed worldwide across all sectors, and a compound annual growth rate of 60 percent.

According to a McKinsey article titled, "The new economics of energy storage" global opportunity for storage could reach 1,000 gigawatts in the next 20 years. The large-scale deployment of energy storage is expected to radical alter electricity markets.

US

According to a report from the Energy Storage Association (ESA), deployed non-hydro energy storage reached 2,276 MW by the start of 2016. Last year we saw 284 percent growth in the US energy storage market as measured by megawatt-hours. The ESA anticipates that this record setting growth will continue in 2017.

Greentech Media cites a report by KEMA that indicates that a record-setting 221 megawatts of storage capacity was installed in the US in 2015 , more than three times as much as in 2014. The US market alone is expected to be worth $2.5 billion by 2020. That is six times as much as in 2015.

The biggest growth is expected to be in distributed storage and grid integration of renewables. Even without tax incentives the KEMA report predicts that we will see 820 megawatts to facilitate integration of renewables.

A Massachusetts energy storage report titled, State of Charge, claims the cost of procuring 1.7 GW of energy storage will be between $970 million and $1.35 billion. However, the report also suggests that this could yield $2.3 billion in system benefits to ratepayers and $1.1 billion in market revenue to the resource owners.

UK

The latest Energy Entrepreneurs report from SmartestEnergy suggests that UK battery capacity could grow by as much as 100 times by 2020. In 2016 there were only 20 megawatts of commercial batteries in operation but 578 megawatts of capacity is scheduled to come online by 2020. The combined capacity may be as high as 2.3 gigawatts.

The UK is investing £246m in battery technology as part of a project called the "Faraday Challenge" This initiative, which includes a competition, seeks to establish the UK as world leader in battery technology.

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Event - California Energy Storage: Cost Effectiveness and Beyond

California Energy Storage: Cost Effectiveness and Beyond will take place on Thursday, April 17, 2014, 1:00pm - 3:30pm PST/ Streamed Panel Discussion 1:30pm - 3:00pm PST/ 4:30pm - 6:00pm EST. Meeting in San Francisco.

In October, 2013, the California Public Utilities Commission issued the unprecedented Decision requiring the state’s utilities to meet energy storage procurement targets of 1.3 gigawatts of storage by 2020. The Decision is intended to:

1. Assist in optimizing California’s electricity grid, including peak demand reduction, improving reliability, and deferring investments in transmission and distribution upgrades
2. Facilitating integration of renewable energy onto the grid
3. Contributing towards the state’s goal of reducing greenhouse gas emissions to 80 percent below 1990 levels by 2050.

The Decision called for the first procurement by the state’s three largest electric utilities (Pacific Gas and Electric Company, San Diego Gas & Electric Company, and Southern California Edison Company) by March 1, 2014, with the first solicitation by December 1, 2014. Further procurements will occur biennially. California’s Community Choice Aggregators and electric service providers will also be required to procure energy storage equal to 1 percent of their annual 2020 peak load by 2020 with installation no later than 2024. The procurements will be competitive solicitations for offers involving RFO(s) for third-party owned or –aggregated resources.

Each energy storage project must be cost effective on a stand-alone basis, with unique factors such as geographic location and multiple storage applications impacting the relative cost effectiveness of each project. The projects will be defined as either transmission-connected, distribution-connected, or customer-side storage. The decision encourages third party ownership of energy storage facilities by limiting utility ownership of storage resources to 50 percent of cumulative target capacity across all three grid domains. The transmission- and distribution-domain storage projects are to be procured in compliance with the CPUC’s Long Term Procurement Planning procedures. Customer-side storage will be procurable via existing programs such as the Self Generation Incentive Program (SGIP), Permanent Load Shifting (PLS), Demand Response, and Vehicle to Grid services.

Determining the cost effectiveness of each energy storage project requires complex analyses which include specific costs and benefits particular to the given project. Furthermore, as highlighted by DNV GL (formerly DNV Kema), existing modeling tools do not integrate scenarios that include both customersavings/energy use optimization and grid-performance models.

Our panel of experts will examine the most vexing challenges to quantifying the cost effectiveness of energy storage projects on a case-by-case basis.

Some of the issues they will address include:
  • What are the most important aspects of the utility procurement procedures?
  • Which storage projects are most likely to achieve cost effectiveness?
  • What are the key assumptions made when assessing individual energy storage project cost effectiveness? 
  • Which storage applications typically can be combined at one location to increase a project’s cost effectiveness?
  • Should storage be valued for more than cost effectiveness: are there benefits not easily quantified?
  • To what extent can energy storage help mitigate the expected mis-match in late afternoon to early evening hours, when over-generation may occur, followed by potential under-generation when solar power decreases significantly and demand peaks?
The California Independent Service Operator (CAISO) popular “Duck Graph” exemplifies this challenge, but has also created a bit of controversy.

Accepted attendees will be provided the specific location in San Francisco upon confirmed registration.

For more information or to request to join the panel, please contact: ted.howard@agrion.org

To register click here.

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Event - Wind Farm Data Management & Analysis 2013

This event will take place on September 23-25, 2013, at the Radisson Blu Hotel, Hamburg, Germany. Wind Farm Data Management and Analysis 2013 will focus on implementing an effective data management strategy to reduce O&M costs.

Windpower Monthly’s Wind Farm Data Management and Analysis Forum is the ONLY event focused on understanding how to optimise wind data to reduce O&M costs and improve turbine performance.

Topics covered include R&D from leading industry heavyweights including: OWI-Lab, ECN, RWTH Aachen, DTU Wind Energy, Fraunhofer Institut (IWES) & Durham University.

Last year’s event received 100% satisfaction from all attendees. Feedback included:

“Focused and very interesting – really worthwhile!”
- Wind Energy R&D Engineer, Romax Technology Ltd

“Informative and great networking event”
- Researcher Wind Energy Systems, ECN

“Eye opener to what is happening in the field”
- Technology Engineer, ZF WindPower

“Got a good impression of issues and trends”
- Chief Engineer, Siemens WindPower

For more information click here.
To register click here. wind, renewables, renewable energy, power, electricity, solving, solutions, capacity, overview, summary, review, renewable power, clean, green,

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Course - Wind Power Planning School

Course - Wind Energy (WND)

Wind Energy (WND) will take place on Sunday Sep 8, 2013, in Woodbridge, ON at the Living City Campus, Kortright Centre, 9550 Pine Valley Drive. This workshop is designed to introduce participants to the criteria for the selection of a wind energy system.

Participants will explore the fundamentals of wind energy, its components, and the application of off-grid and grid-tied wind systems. Topics covered will include the various types and sizes of machines, towers and the procedures for installation. The instructor will also be conducting a tour of the seven installed wind turbines along the Kortright Power Trip Trail. Portions of the day will be spent outdoors; participants should dress accordingly. (Lunch is provided).

To register for this workshop click here.

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Wind Energy Storage Solution Employing Concrete Spheres

Offshore wind holds tremendous promise, however the intermittent and unpredictable presence of wind imposes limits on this technology. However a new approach from researchers at MIT may have solved this problem with an approach that stores energy to be used when there is no wind.

This concept employs huge concrete spheres which would anchor wind turbines to the sea floor. When a wind turbine produces more energy than is needed, power would be diverted to drive a pump attached to the underwater structure, pumping seawater from a 30-meter-diameter hollow sphere. Then when there is no wind the water would flow back into the sphere through a turbine attached to a generator, producing energy.

A 25-meter sphere could store up to 6 megawatt-hours of power. One thousand spheres attached to wind turbines could produce as much coal or nuclear plant.

The system could also operate with shore based renewable sources of electricity like solar plants. Preliminary estimates indicate that one such sphere could be built and deployed at a cost of about $12 million but as the spheres are mass produced costs would come down. This could result in an estimated storage cost of about 6 cents per kilowatt-hour.

A 30-inch-diameter prototype was built in 2011 demonstrated the feasibility of the concept. MIT has filed for a patent on the system.

Due to its carbon emissions profile, one of the major problems associated with the concept is the amount of concrete that would be required. To address this problem the concrete spheres could be made, in part, using large quantities of waste fly ash from existing coal plants

The researchers at MIT estimate that these concrete sphere floating wind turbines could create enough capacity to supply one-third of U.S. electricity needs.

Click here to see a full report on the concept published in IEEE Transactions and co-authored by Alexander Slocum, the Pappalardo Professor of Mechanical Engineering at MIT; Brian Hodder, a researcher at the MIT Energy Initiative; and three MIT alumni and a former high school student who worked on the project.

© 2013, Richard Matthews. All rights reserved.

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wind, renewables, renewable energy, power, electricity, solving, solutions, new, novel, innovative, research, battery, storage, capacity,

Harnessing Wind Energy Without Blades

Wind turbines are a large and growing source of energy but the turning blades have led to concerns about sound and impacts on bird populations. People have also complained that such wind turbines are an eye-sore. A new structure designed by Dutch architecture firm Mecanoo and installed at the Delft University of Technology convert wind to energy without any moving parts.

The new technological innovation was developed by the Electrical Engineering, Mathematics and Computer Science faculty at Delft. It uses the movement of electrically charged water droplets to generate power.

The prototype of the EWICON (Electrostatic Wind Energy Converter) is not impacted by traditional wear and tear that limit the life of traditional blade based turbines. As such it requires very little maintenance. Further it makes no noise and casts no shadows.

The new bladeless technology has already been incorporated into the design of a project in Rotterdam.

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