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Promotion of innovative energy storage technologies in Japan Global Perspectives on Energy Storage Energy Storage Association 24 th Annual Conference June 4, 2014 Hiroshi Kuniyoshi Secretary General, JSCA Executive Director, NEDO Nithiananthan Rajendran Smart Grid Engineering Group Transmission & Distribution Systems Div. Toshiba Corporation (a JSCA member)

Promotion of innovative energy storage technologies in … · Promotion of innovative energy storage technologies. in Japan. ... Created by NEDO from the material for the 3rd meeting

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Promotion of innovative energy storage technologies in Japan

Global Perspectives on Energy Storage Energy Storage Association 24th Annual Conference June 4, 2014

Hiroshi Kuniyoshi Secretary General, JSCA Executive Director, NEDO

Nithiananthan Rajendran Smart Grid Engineering Group Transmission & Distribution Systems Div. Toshiba Corporation (a JSCA member)

1

1. Outline of NEDO

2. Japan’s Energy Situation

3. Promotion of Energy Storage Technologies

4. Smart Community Projects

Contents

2

Mission: ・ Addressing energy and global environmental problems ・ Enhancement of Japan's industrial competitiveness

Organization: Established in 1980; reorganized in 2003 as an incorporated administrative agency under the Ministry of Economy, Trade and Industry of the Government of Japan

Head Office: Kawasaki City, Japan

Personnel: About 800

Budget: JPY 148.4 Billion (FY2014)

Chairman: Mr. Kazuo Furukawa

New Energy and Industrial Technology Development Organization (NEDO)

3

Bio/medical

Water treatment

Energy storage

Renewable energy Energy

conservation Electronics/ICT

Smart community Environment/ clean coal Robotics

Basic Research Demonstration Technology Development

Materials/nanotech

NEDO’s Science and Technology

4

Contents

1. Outline of NEDO

2. Japan’s Energy Situation

3. Promotion of Energy Storage Technologies

4. Smart Community Projects

5 Source: Created by NEDO from the material for the 4th meeting of the Coordination Subcommittee of the Advisory Committee

for Natural Resources and Energy, Agency for Natural Resources and Energy

Changes in the composition of electrical source of electric utilities

Po

we

r g

en

era

tio

n s

ha

re

Fossil fu

el a

cco

un

ts fo

r ab

ou

t 90

%

FY2010 FY2011 FY2012 April 2013 May June

Thermal power generation

ratio of coal

Thermal power generation

ratio of LNG

Thermal power generation ratio

of oil etc.

Thermal power generation ratio Nuclear power generation ratio Nuclear power generation ratio

Power generation ratio

of hydro-electric etc.

Composition of Electricity Source in Japan

6

Renewable Energy in Japan

Source: Created by NEDO from the material for the 3rd meeting of the Basic Policy Subcommittee of the Advisory Committee for Natural Resources and Energy, Agency for Natural Resources and Energy

Average annual growth rate: 8%

Average annual growth rate: 13%

The surplus electricity purchasing system Feed-in Tariff

[Fiscal Year]

Solar photovoltaic

Geothermal

Wind

Biomass

Step 1 2015

Step 2 2016

Step 3 2018-2020

Expand use of the nationwide grid

(to be undertaken approximately by 2015)

Complete liberalization of the retail electricity sector

(to be undertaken approximately by 2016)

Establish legal separation between electricity

generators and distributors and abolish retail price

regulation. This will allow more flexibility in balancing power needs between regions in order to ensure supply when power demand and supply is tight.

This will allow consumers to choose their supplier and charging system.

Separate the generators and distributors into independent and neutral entities to allow an accessible and independent power grid. Furthermore, the retail price of electricity will be completely liberalized to ensure competitive electricity pricing.

Organization for Cross-regional Coordination of Transmission Operators will be established

Electricity System Reform in Japan

Three steps of roadmap for reform

Source: Adapted from Prime Minister of Japan and His Cabinet

8

Contents

1. Outline of NEDO

2. Japan’s Energy Situation

3. Promotion of Energy Storage Technologies

4. Smart Community Projects

9

Applied and practical technology development

Advanced fundamental research

Elemental technology development

Demonstrative research

For Vehicle & Others For Stationary

Fundamental Study of Evaluation Method for Battery Material R&D (FY2010-2014, FY2013-2022)

Common Fundamental Technology

R&D Initiative for Scientific Innovation on New Generation Batteries -RISING- (FY2009-2015)

Elemental Technology

Applied and Practical Technology

Development of Large-scale Energy Storage System with High Safety and Cost Competitiveness (FY2011-2015)

Applied and Practical LiB Development for Automobile and Multiple Application (FY2012-2016)

Ongoing energy storage technology projects of NEDO

10

The project has two key development targets. Target 1: Load frequency control system Cost Target: 70,000 yen/kW Target 2: Surplus power storage system Cost Target : 20,000 yen/kWh

The life span and efficiency targets for the both systems are 20 years and 80%.

200

150

100

50

0 5 10 15 20

Surp

lus p

ow

er sto

rage

Cost

(thousan

d y

en /

kW

h)

surplus power

storage

load frequency controlLIB

Ni-MH

2020sCost :¥70,000/kWLife span :20 yearsEfficiency :80%

150

100

250

200

Load fre

quency

contr

ol

Cost

(thousan

d y

en /

kW

)

LIB

Ni-MH

2020sCost :¥20,000/kWhLife span :20 yearsEfficiency :80%

50

Present

Life span(year)

Target

Target

Targets of energy storage system for power grid

11

Energy Storage System Projects

Rated power 2MW class

System capacity Approximately 800kWh

Battery type Lithium ion (LIB)

Rated power 300kW class

System capacity 122kWh

Battery type Nickel Metal Hydride (Ni-HM)

Energy Storage System using Ni-MH Battery (Kawasaki Heavy Industry)

Energy Storage System using LIB (Mitsubishi Heavy Industry)

12

Subsidized Company Sumitomo Electric Industries Co., Ltd. NGK Insulators, Ltd.

Battery type Redox flow NAS

Battery mechanism Changing valence of vanadium (V) included in the electrolyte

Moving sodium ion during in the solid electrolyte

Strong point

Easy to increase the capacity battery system by adding an electrolyte tank

- Low cost - Materials w/ low resource constraint

Subsidized Company Hokkaido Electric Power Co.,Inc. Tohoku Electric Power Co.,Inc.

Battery type Redox flow LiB

System Capacity 60 MWh 20 MWh

Location Substation in Hokkaido Substation in Tohoku

Conceptual Drawing

2. Demonstration of massive battery system for power grid

1. Development of low cost battery for power grid

Energy Storage System projects

13

Contents

1. Outline of NEDO

2. Japan’s Energy Situation

3. Promotion of Energy Storage Technologies

4. Smart Community Projects

14

New-generation gas station

Zero emission buildings

Solar power

Wind power

GE GE

Solar power

Smart house

Storage battery

Biogas

Wind power

Mega solar

NaS Battery

EVs and PHEVs

Enable better use of heat in

addition to electricity.

Energy System Construction:

Mutually beneficial for main grid operator and regional energy

management provider

Home storage battery

Wasted heat

Utilize IT for peak cuts

Regional Energy management

provider

Charging stations for EVs

GE GE

Information network

Smart Meters:

Visualization of home energy

use and demand control

Connect BEMS with regional EMS

Main grid

Cogeneration

Energy management system

Concept of Smart Community

15

Yokohama City

Yokohama City, Toshiba, Panasonic, Meidensha, Nissan, Accenture, others

CO2 emissions: 30%↓by 2025 (compared with 2004 levels)

Energy management system that integrates HEMS, BEMS and EVs PV (27,000 kW) Use of heat and unused energy 4,000 smart houses, 2,000 EVs

Toyota City Toyota City, Toyota Motor, Chubu Electric Power, Toho Gas, Toshiba, Mitsubishi Heavy Industries,

Denso, Sharp, Fujitsu, Dream Incubator, etc. CO2 emissions: Residential 20%↓and

Transportation 40%↓

Use of heat and unused energy in addition to electricity Demand response at more than 200 homes 3,100 EV, V to H and V to G

Kyoto Keihanna District

Kyoto Prefecture, Kansai Electric Power, Osaka Gas Kansai Science City, Kyoto University

CO2 emissions: Residential 20%↓and Transportation 30%↓(compared with 2005 levels)

Install PV at 1,000 homes, EV car-sharing system Management of grid connected PV and fuel cells in

houses and buildings (visualization of demand) Grant “Kyoto eco-points” for green energy usage

Kitakyushu City Kitakyushu City, Fuji Electric Systems, GE, IBM, Nippon

Steel CO2 emissions: 50%↓(compared with 2005 levels)

Real-time management at 50 companies and 225 houses Energy management using HEMS and BEMS Energy system that coordinates demand side

management with overall power system

Demonstration Projects in Japan(FY2010-FY2014)

16

International Smart Community Demonstration Projects

Lyon(France) Positive energy building, EV car sharing and energy audit demonstration in a redeveloped city

Malaga(Spain) EV charging infrastructure and driver navigation system Karawang(Indonesia)

Power quality management at industrial park

Maui island(USA) Direct control of EV to absorb sudden run down of renewable energy sources

New Mexico(USA) Micro grid demonstration in Los Alamos and Albuquerque

17

Objective: Promote the dissemination of smart community technologies by addressing complex issues through the collaboration of the public and private sectors

Established: April 6, 2010 Members: About 300 Chairman: Mr. Norio Sasaki (TOSHIBA) Secretary General: Dr. Hiroshi Kuniyoshi (NEDO)

Japan Smart Community Alliance (JSCA)

Utilities Institutions

Developers

Public

Framework

Private

Framework

Secretariat

MOU

Member Member Member

Manufacturers

International Collaboration

https://www.smart-japan.org/