Strategic Integration of Ultra‐Low Strategic Integration of Ultra‐Low Power Technologies g
August 1, 2011 August 1, 2011
- Haruhisa. Ichikawa
i i f l C i i University of Electro‐Communications, Japan
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Strategic Integration of Ultra Low Strategic Integration of Ultra - - PowerPoint PPT Presentation
Strategic Integration of Ultra Low Strategic Integration of Ultra Low Power Technologies g August 1, 2011 August 1, 2011 Haruhisa. Ichikawa University of Electro Communications, Japan i i f l C i i 1 Contents Contents 1.
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ULP components to which the results of ULP 5 to 10 years after the completion of ULP
Reducing ICT electric which the results of ULP Research Area are applied completion of ULP Research Area
ULP component
ULP components
Reducing ICT electric power consumption
ULP component ULP ULP
ULP integration technology
“Place & Play Informa Resolving problems for humanity
component component
ULP integration technology Informa‐ tion System” y Strengthening Japan’s industrial Japan s industrial competitiveness ULP component ULP component ULP component
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Satisfying the needs of the Base of the Pyramid (BoP) is the only way for long‐term sustainable growth of the world (S.L. Hart, “Capitalism at the Crossroads”) ▪ Export oriented policies targeting at the wealthy class of developed countries led to Export oriented policies targeting at the wealthy class of developed countries led to excessive production and global deflation. ▪ The poor at the BoP live in high cost economies, with huge consumer surplus. ▪ BoP is often ideal markets for destructive technologies. BoP is often ideal markets for destructive technologies.
Purchasing Power Parity Population
>$20,000 7.5million ~ 100 million $1,500 ~ $20,000 1.5billion ~ 1.75billion
Base of Pyramid (BoP)
$1,500 > 4billion
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Humanity,” Perason Education, 2007. 6
Save the use of materials and energy
Green by ICT Advanced Economy(Advanced Market)
Save the use of materials and energy Decrease the sources of pollution “Clean” products Eco‐technology development Develop the abilities of
y (Ex: SMART2020 )
Emerging Economy(Emerging Market) Environmental Pollution P t
Decrease the sources of pollution the people suffering the poverty
Smart City
Megalopolis Poverty R y
Resource Exhaustion Smart Grid
Sustainable Use of Nature Resources Supplement / Replace exhausted resources D l B i B d Vill
Sustainable Business Development in BoP Smart Grid
Develop Businesses Based on Villages
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Humanity,” Perason Education, 2007.
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http://www.gtz.de/de/dokumente/en‐konferenz‐innovative‐ geschaeftsmodelle‐itc‐infotech‐2008.pdf
Service zones of ubiquitous networks
Improvements to clerical & business
(Automated meter readings, etc.) Facility controls (Electrical equipment, electric power controls, etc.) Logistics & marketing (Tracking the location of commodities vehicles
Service zones of ubiquitous networks
Sites of production directly linked with consumers BoP‐type Smart Grid (Electric power provision, primarily generated by the environment) Remote maintenance
equipment Transportation management & control ‘Monitoring of traffic Disaster prevention & commodities, vehicles customers, etc.)
Needs of
Surveillance on strengths equipment Monitoring of traffic flow, car sharing, etc.) disaster contingency plans (Monitoring earthquakes, etc.) Sharing expensive equipment Environmental pollution monitoring
BoP regions
Theft prevention Remote medical care (advanced medical care provided as well as the Building management (Building maintenance, etc.) Disaster prevention & disaster contingency plans (Monitoring earthquakes, ) Monitoring status of growth and development as well as provided as well as the management of medications and medical equipment) Medical care & welfare support Food & agriculture etc.) Crime prevention & security ( h d d and development as well as nurturing the environment for agricultural production Medical care & welfare support (Health management & advanced medical care, etc.) Food & agriculture (Greenhouse management systems, etc.) (Unauthorized intrusion and theft prevention, etc.) 9
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An example of the rural villages in India (Sharing internet terminal in a village) An image of P&P System providing broadband internet services to villagers11
– Small initial investment – Speedy installation – Small footprint Small footprint – Power saving – Transferable
xpected Features of P&P Small Modular Data Center Boxes with Mobile Routers for Small Teams
– Inherits and Enhance the features f t i i d l d t
Example of Existing Modular Data Center
centers
C ff h k f l i l
load
– Useable under disaster‐affected environments
Example of Mobile Routers Example of Rechargeable Battery System
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Data Center
P&P b k
Servers
Power Supply
P&P back yard system P&P backbone P&Pコアシステム
Indipendent Power Supply
P&P core system connected network
Power Supply
P&P client system P&P access
RFID and Sensors
電源
P&P ubiquitous terminal P&P access network system
ルータ
Suitcase-type P&P core system
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ULP HPC center (Matsuoka) ULP cloud (Maeda)
Data center
ULP HPC computer (Takagi) ( )
P&P b k d
Server
Data center
Power supply
ULP optical node (Sato) P&P surveillance (G t )
P&P back yard system P&P backbone d k
Low power inter‐terminal communication equipment (Kuroda) ULP optical node (Sato) ULP core router (Koike) camera (Goto) P&PTV conference sys (Takada) Field of view expanding‐ type camera (Takada)
P&P core system connected network
P&P display sys (Kobayashi)
P&P client system P&P access
ULP Linux server (Nakamura) Communication system (Ichikawa) ULP system cube (Kuroda)
RFID and sensor
P&P wireless network (Nishikawa)
P&P ubiquitous terminal P&P access network system
Ubiquitous wireless server (Ichikawa) (Nishikawa) Router Environmental power‐ supply type wireless tag (Ichikawa) Virtual wireless space t k (I hik ) Image sensor (Goto) Internet cache system (Ichikawa)
Suitcase-type P&P core system
Items management system (Ichikawa) High‐performance sensor (Kuroda)
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network (Ichikawa) High‐speed inter‐terminal communication equipment (Kuroda)
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Provide broadband internet services with poor social infrastructures:
is available. is available.
local people usage via broadband WiFi networks. Areas lacking infrastructures Areas infrastructures prepared
Broadband li Narrow band access line access line access line Transporting web content data
http://www.imtfi.uci.edu/imtfi_bopworkshop
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Sub μW class environmental energy
MEMS oscillator that resonates with a
Sub μW‐class environmental energy harvesting oscillator
MEMS oscillator that resonates with a low frequency vibration, existing in the natural environment; MEMS oscillator built in a silicon chip observed to function.
Wireless communication
communication technology without using analogue transmission waves developed; A μW class operation verified
component of sub μW‐class
developed; A μW-class operation verified.
(excluding antenna).
Reference: http://www.ulp.jst.go.jp/topics/pdf/20081208/ULPDOC3_Ichikawa_081208.pdf 16 16
P&P ubiquitous terminal P&P core system Standard wireless protocol terminal
(Example)
Application
Wireless LAN (W‐class) 3G (mobile phone) (sub W‐class) Bluetooth (100 mW class) IEEE802.15.4/Zigbee (10 mW class)
(Example)
Non‐standard
ISO18000 series
Note: The figures inside the brackets represent the power consumption
P&P access network
Operational log recording middleware RF t
Wireless space d b
RF tag and sensor reception software
wireless protocol terminal
RF tag
distribution server
Sensor
Active RFID (mW class)
Ubiquitous wireless server
(numbers of wireless units in
Virtualized Radio Space
(Example) Environmental power‐supply type terminal (μW‐class) 17
Simplified protocol (Non‐standard protocol) → Ultra low power consumpon Information in Radio Space Transferred over the Network Software Defined Radio
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Scheme to show ULP R&D results and independent power supply technologies will enable “Place & Play” in future Electric Power
Power by independent power supply
ULP Integrated Subsystems Server System
Power Consumption ULP R&D Results
SystemBefore
ULP Integrated Subsystems constructed with
SystemBefore SystemAfter
Power Consumption current devices show: ‐ their functions ‐ the needs of ULP technologies (to Mock‐up
Client System
Power by independent power supply
Year
reduce the power consumption, physical size, etc.)
Year
Today
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10 years after the ULP Research Area
(Impact Estimation of Miniaturization and Kuroda and Nakamura Teams’ Results)
100W
CPU
30
Memory
5
HDD
32
Power Suppy
10 4W
Others
(I/O Controller)
ULP T h A li d
20 1.67W
Today (Y2007) Miniaturization of Wired Circuits (Y2016) ULP Tech. Applied (Y2016)
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㎡ 35 (㎡), 57 (panel) , 56 (rechargeable battery) in Dhaka 66 (㎡), 110 (panel) in Tokyo
0.6 (㎡), 1 (panel), 1 (rechargeable battery) in Dhaka 1 1 (㎡) 2 (panel) in Tokyo 1.1 (㎡), 2 (panel) in Tokyo
After: Photovoltaic Panels: 1 Rechargeable Batteries: 1 Before: Photovoltaic Panels: 57 Re har eable Batteries 56 Rechargeable Batteries: 1 Rechargeable Batteries: 56
The estimation assumes:
・ ・・ ・・ ・・ ・・ ・・
‐ The system is continuously used. ‐ Electric power conversion rate from sunshine energy is 20%. ‐ The power for 7 days without sunshine is charged in one day.
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Data center
P&P b k d
Server
Data center
P&P back yard system P&P backbone connecting network Photovoltaic panel P&P access P&P client system P&P core system network system P&P ubiquitous terminal camera Ubiquitous q appliance & universal reader 23
Front Side View Back Side View
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– Create High‐Value Added Products
I G d P d – Increase Good Products – Improve Work Efficiency – Innovate Supply Chain
– Improve Disease Control of Livestock and Crops
– Communicate with family members working abroad – Communicate with family members working abroad – Enjoy audio‐visual contents
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Weather, etc. 5 Product selection and call
Volume of good product
200 400 Average weight of product [g] Ref.1 http://igpf.gramweb.net/index.php
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