batteries and energy storage - josre · batteries and energy storage 3/4/2013 nikolas parrish...
TRANSCRIPT
Burnham-Moores Center for Real Estate
University of San Diego Master of Science in Real Estate
Presentation
Batteries and Energy
Storage 3/4/2013
Nikolas Parrish
Please do not quote or use this presentation without appropriate recognition. Thank you!
Purpose • Energy storage affects the grid, individual buildings, cell
phones to pace makers
• Power generated from renewable energy/ reactors must be
saved for off peak times
• 33% renewable efficiency in CA by 2020 will not be
achieved without energy storage
– Needed to manage up and down demand
– Constant electrical needs with decreased dependence on
fossil fuels, more on efficient cars, handle population
increases and energy crisis
– Technology to solutions outlook
Burnham-Moores Center, MSRE
Program, University of San Diego
Research Plan
• Evolution horizon for battery technology
– When will breakthroughs happen?
– Who is working on them?
– Speed to store/release
– Quantity
– Cost
• Potential implications
Burnham-Moores Center, MSRE
Program, University of San Diego
Lithium-Ion Battery • Popular in all consumer electronics and electric cars
• Non-rechargeable Lithium battery invented in 1970, Isidor Buchmann
• 1991 - commercialization of lithium-ion rechargeable batteries
• 1997 - graphite used as negative electrode
– Positive- lithium cobalt oxide (industrial scale), lithium iron
phosphate (medical/EV/hobbyist), lithium nickel cobalt aluminum
oxide (EV/grid storage), lithium titanate (EV, grid storage), lithium
and carbon with a metallic fluid
Burnham-Moores Center, MSRE
Program, University of San Diego
Lithium-Ion Storage
• Stores 150 watt hours of electricity in 1 kg of
battery
• Nickel-metal hydride battery pack stores 60 to 100
watt hours per 1 kg (Toyota Hybrid)
• Lead-acid battery stores 25 watt hours per 1 kg
– Takes 6 kg to store same amount of energy as 1
kg lithium-ion battery
– Typical car battery
Burnham-Moores Center, MSRE
Program, University of San Diego
Lithium-Ion Battery
Burnham-Moores Center, MSRE
Program, University of San Diego
Pros Cons
High commercial energy density Safety- Reactive/Fire/Fragile
Rechargeable (thousands of cycles) Last 2-3 years used or not
Slow loss of Charge (5%/Mo.) Temperature fluctuations
Lighter and smaller than NiCd Ruined if completely discharged
No memory effect-charge anytime Must have computer management
Limitless shape Expensive
Lithium-ion Transportation
Market • Global market for electric vehicles rising
– Lithium-ion technology of choice
• Hybrids and electric vehicles require larger battery packs
• Pike Research estimates Lithium- ion battery industry will grow
to $8 billion in sales worldwide by 2015, up from $878 million
in 2010.
• Battery cost causes high price premiums on batteries. Li-ion
prices due to fall 50% over next few years from $940 per
kilowatt hour (kWh) in 2010 to $470 per kWh by 2015.
• Government incentives and subsidies are winding down
Burnham-Moores Center, MSRE
Program, University of San Diego
Nissan Leaf
Burnham-Moores Center, MSRE
Program, University of San Diego
73 Mi Range
4-8 hrs charge
$21,000-$27,000
24 kWh lithium-ion
battery
Battery 50% of cost
Boeing 787 Li-ion Battery Issues
Burnham-Moores Center, MSRE
Program, University of San Diego
BBC January 17, 2013
Overheating
5 incidents in 5 days
In service since Oct. 2011
Had small space/large energy
demand
GM Co. Volt caught fire in 2011
Future Lithium Batteries • November 16, 2009 University of Dayton Research
Institute- lithium air battery reacts with O2
– Carbon based cathode is cheaper/ Lithium anode
– Lightweight
– 3x energy density than conventional batteries
– Store 3,400 watt hours of energy than lithium cobalt of 1,450 watt hours
– 1,000 mi range for electric vehicles
• IBM- prototype in 1 year, 5-10 years to commercialization
• MIT- catalyst research
• GM and Toyota
Burnham-Moores Center, MSRE
Program, University of San Diego
Future Lithium Batteries Cont. • Lithium-sulfur battery developed by Stanford professor
Yi Cui
– Higher energy density
– Sulfer component is much cheaper
– Loss of capacity on each recharge
– Promising for future electric vehicles
Burnham-Moores Center, MSRE
Program, University of San Diego
Liquid Battery • Donald Sadoway-MIT, Materials Chemist
• Electrodes are molten medals
• Electrolyte conductor between them is molten salt and magnesium-
10x higher electrical currents
– Absorb large amounts of electricity
– Cost less than 1/3 of Li-ion and last longer
– Recharge infinitely
– Hopefully ready in 5 years
Burnham-Moores Center, MSRE
Program, University of San Diego
Liquid Battery Cont. • Energy storage on a massive scale for power grid
• Renewable collector from solar panels or wind
• Wiring together large battery cells to meet energy demands
in cities
– NYC needs 13,000 megawatts, 645,835 Sq. Ft.
• Huge solar farms to meet energy demands during day and
excess for battery usage at night
• Lower need for power plants
• “invent our way out”
– To sustainability
– Lower fossil fuel use
Burnham-Moores Center, MSRE
Program, University of San Diego
Other Grid Storage
• Aquion Energy- lithium manganese oxide
– Saltwater, cotton, charcoal and dirt
– Cheap materials
• Shipping container size storage cells for:
– Solar, wind and other renewable energy producers who
need to store the electricity they make before selling it
to the grid.
• Carnegie Mellon University’s school of engineering.
• Augment diesel generators in remote areas or back up the
power supply of homes and businesses.
Burnham-Moores Center, MSRE
Program, University of San Diego
Battery Development • Bill Gates and Total (oil company) in sodium battery
• Lonex- Lithium-ion phosphate for 1-2 megawatt battery in
a shipping container
• A123- nanophosphate lithium-ion for transportation and
the grid
• Amprius- silicon nanostructure to replace carbon anode
systems (10x)
• Leyden Energy- Lithium-ion with electrolyte made of salts
• Tokyo Electrical Power Company- (NAS)-Sodium sulfer
• Car makers, electronics, commercial companies, etc.
Burnham-Moores Center, MSRE
Program, University of San Diego
Carbon Nanotubes
• MIT research funded by USAF, NSF
– Powerful thermopower waves
– Rare occurrence
• Nanotech Institute at the University of Texas
• Can be used in engineering to medicine
• Yi Cui- nanotechnology to create paper batteries
and fabrics
Burnham-Moores Center, MSRE
Program, University of San Diego
Bendable Batteries
• Yonggang Huang and John Rogers at the University of
Illinois
• Bendable for pacemakers to bouncing cell phones
• Stretched 300%, coil system
• Wireless power charging
Burnham-Moores Center, MSRE
Program, University of San Diego
Future Technology
Burnham-Moores Center, MSRE
Program, University of San Diego
Solid state li-ion (EV)
Magnesium-ion (2020)
Graphine supercapacitors
Recommendations
• Obama goals in 2009
– 1 million EV cars on road by 2015
– Fewer than 50,000 sold to date
– 1 in 600 car sales were electric in the $2 trillion global market last
year
• Need mass market adoption (Tesla)
– Better storage
– Cheaper
– Harmless materials and better recycling
– Lower dependence on expensive power stations
– Government funding/ incentives in the private sector
Burnham-Moores Center, MSRE
Program, University of San Diego
Summary
Burnham-Moores Center, MSRE
Program, University of San Diego
•Batteries run out of juice, die, are environmentally harmful,
expensive and can be huge
•Our ticket to a sustainable way of life
•Technology beyond lithium ion will provide huge
advancements
•Batteries double in performance every 10 years
Resources suggested for further reading
1. http://www.ted.com/talks/donald_sadoway_the_missing_link_to_renewable_e
nergy.html
2. http://www.slideshare.net/linda3395/batteries-9442097
3. http://www.bloomberg.com/news/2013-02-21/lithium-air-battery-gives-ibm-
hope-of-power-without-fires.html
4. http://extreme.mobile.msn.com/video/watch/a6cfdbed-74cd-4924-abdf-
69cead0754ef
5. http://www.csmonitor.com/Environment/Energy-Voices/2012/1024/Liquid-
metal-battery-Can-we-invent-our-way-out-of-climate-trouble
6. http://www.ngk.co.jp/english/products/power/nas/index.html
7. http://www2.technologyreview.com/article/412190/tr10-liquid-battery/
8. http://www.pv-
tech.org/editors_blog/energy_storage_the_missing_link_in_evolution_of_solar
Burnham-Moores Center, MSRE
Program, University of San Diego
References 1. SlideShare.net http://www.slideshare.net/linda3395/batteries-9442097
2. TED Donald Sadoway: The missing link to renewable energy
http://www.ted.com/talks/donald_sadoway_the_missing_link_to_renewable_energy.html
3. Energy storage: the missing link in evolution of solar By: Felicity Carus
http://www.pvtech.org/editors_blog/energy_storage_the_missing_link_in_evolution_of_s
olar
4. How Lithium-ion Batteries Work By: Marshall Brain
http://electronics.howstuffworks.com/everyday-tech/lithium-ion-battery.htm
5. The History of Lithium Ion Batteries By: Christina Hadley
http://www.ehow.com/about_6114119_history-lithium-ion-batteries.html
6. Lithium-Ion Batteries for Off-Grid Systems Are They a Good Match? By: Randy
Richmond http://www.homepower.com/articles/lithium-ion-batteries-grid-systems
7. Lithium Prices By: Dave Brown http://lithiuminvestingnews.com/1727/lithium-prices/
8. Lithium-Ion Batteries for EVs to Grow from $878 Million Market in 2010 to $8 Billion
in 2015 By: Michael Graham Richard http://www.treehugger.com/corporate-
responsibility/lithium-ion-batteries-for-evs-to-grow-from-878-million-market-in-2010-
to-8-billion-in-2015.html
9. Lithium Ion Batteries for Electric Vehicles to Approach $8 Billion in Sales By: 2015
http://www.pikeresearch.com/newsroom/lithium-ion-batteries-for-electric-vehicles-to-
approach-8-billion-in-sales-by-2015
Burnham-Moores Center, MSRE
Program, University of San Diego
References 10. Nissan Website http://www.nissanusa.com/electric-
cars/leaf/index?dcp=ppn.63023881.&dcc=0.240189299
11. Dreamliner: Boeing 787 planes grounded on safety fears
http://www.bbc.co.uk/news/business-21054089
12. Lithium Air Battery Gives IBM Hope of Power Without Fires By: Christopher Martin
http://www.bloomberg.com/news/2013-02-21/lithium-air-battery-gives-ibm-hope-of-
power-without-fires.html
13. Scientists increase lithium-sulfur battery lifetime by a factor of 10 February 25, 2013
By: Lisa Zyga http://phys.org/news/2013-02-scientists-lithium-sulfur-battery-lifetime-
factor.html
14. MIT Working on More Powerful, Lightweight Batteries http://www.alternative-energy-
news.info/more-powerful-lightweight-batteries/
15. Using Carbon Nanotubes to Produce Electricity http://www.alternative-energy-
news.info/carbon-nanotubes-produce-electricity/
16. Lights Up Batteries and Clothing http://www.alternative-energy-
news.info/nanotechnology-lights-batteries-clothing/
17. Supercharged! Battery Power for the Future http://news.discovery.com/tech/gear-and-
gadgets/super-charged-batteries-120201.htm
Burnham-Moores Center, MSRE
Program, University of San Diego
References 18. Lithium-Sulfer Battery With Life Span of Lithium-Ion, Invented at Stanford By: Benji
Jerew http://www.greenoptimistic.com/2013/02/25/lithium-sulfur-battery-
stanford/#.UTWYw1dht8E
19. TR10: Liquid Battery By: Kevin Bullis
http://www2.technologyreview.com/article/412190/tr10-liquid-battery/
20. http://chinaenergysector.com/tag/power-grid/
21. The Battery of the Future By: Eric Wesoff
http://www.greentechmedia.com/articles/read/the-battery-of-the-future
22. 12 Volt 10 ah LiFePO4 LFP12V10 Lithium Iron Phosphate Battery
http://www.apexbattery.com/12-volt-10-ah-lifepo4-lfp12v10-lithium-iron-phosphate-
battery.html?utm_source=googlepepla&utm_medium=adwords&id=41536836546&utm
_content=pla&gclid=CPf1rbWu5rUCFexaMgodc1QAmQ
23. NAS Batteries http://www.ngk.co.jp/english/products/power/nas/index.html
24. How BENDABLE batteries of the future will power pacemakers and bouncing cell
phones By: Daily Mail Reporter http://www.dailymail.co.uk/sciencetech/article-
2285118/Bendable-batteries-future-help-power-pacemakers-bouncing-cell-phones.html
25. Charge Your Cell Phone In 5 Seconds
http://extreme.mobile.msn.com/video/watch/a6cfdbed-74cd-4924-abdf-69cead0754ef
26. Liquid metal battery: Can we invent our way out of climate trouble? By: Laurent Belsie
http://www.csmonitor.com/Environment/Energy-Voices/2012/1024/Liquid-metal-
battery-Can-we-invent-our-way-out-of-climate-trouble
Burnham-Moores Center, MSRE
Program, University of San Diego
Author Bio
Burnham-Moores Center, MSRE
Program, University of San Diego
Donald R. Sadoway
Professor of Materials Chemistry at MIT. He has done
extensive research in the fields of energy storage,
nanotechnology and structural and environmental materials.
He seeks to establish scientific underpinnings for
technologies that make efficient use of energy and natural
resources in an environmentally sound manner.
http://dmse.mit.edu/faculty/profile/sadoway (Contact Info.)
http://www2.technologyreview.com/article/412190/tr10-
liquid-battery/ (Liquid Batteries Article/ Video)