Title: CANARIE, CA*net 4 and Intelligent-Infrastructure University of Victoria November 28, 2005
1 CANARIE, CAnet 4 and Intelligent-Infrastr
ucture University of Victoria November 28,
2005
Andrew K. Bjerring President and CEO
2Outline
- Background
- CAnet 4, Lightpaths and UCLP
- Grids and Intelligent Infrastructure
3Background
4The Ultimate Driver...
5...and the effect on networks
When the network is as fast as the computers
internal links, the machine disintegrates across
the net into a set of special purpose appliances
-George Gilder
6The Evolution of the Internet
- First wave
- Application Transfer of text and data
- Network An add-on to the computer
- Organizations Real and local
- Second wave
- Application Widespread access to images, sound
and video. - Network A partner with the computer
- Organizations Increasing virtual elements
- Third wave
- Application Linking services real time
transactions - Network Integrated into a cyber
infrastructure or intelligent infrastructure - Organizations Emphasis shifting to communities
of interest
Forbes.com ...the next phase of the
networking revolution comes from adding new
intelligence and services to the electronic
"plumbing" that now envelopes the very way we
conduct business. From the Web to wireless, a
new level of intelligent infrastructure is
fast-changing the business landscape. (April,
2005)
7CANARIEs First 12 Years (1993-2005)
- Advanced Networks 4 generations of CAnet and
associated regional nets - Next-Generation Applications Over 200 RD
projects focusing on e-learning, e-health,
e-business, e-content and underlying technology - Domestic and International Outreach Broad range
of more general awareness raising, community
development and branding activities.
8Next Generation Applications
- Phase 1 1993-1995 26 m
- Stand-alone projects
- Phase 2 1995-1999 80 m
- Collaborative projects
- Phase 3 1999-2004 78 m
- Strategic sectoral development
- Phase 4 ??
- Intelligent infrastructure and e-solutions
9Example of Sectoral Development ECCnet
- Industry-wide data synchronization solution for
supply chain management in grocery retail,
foodservice, and pharmacy sectors - Large enterprises, MNEs and SMEs all represented
- For grocery retail sector 2,500 companies,
300,000 products, 85 of transactions - 4.5M CANARIE funding over 2.0M paid back to
date
10General Lesson Learned
- Next-Generation applications involve applying new
technologies to develop and re-design processes
and relationships across organizational
boundaries
- Technological Innovation
- Web services and grids
- Convergence of networks and IT
- Leading to shared intelligent infrastructure
- Process and Relational Innovation
- Opportunities for productivity gains
- Inter-organizational processes
- Leading to a community of interest (COI) based
planning
11Status of CANARIE Strategy(2005-2010)
- CAnet 4
- Current funding ends March 31, 2007
- Extension to 2010 approved in principle by
federal cabinet - Funding for post March 31, 2007 pending
- Change from 3-5 year funding model part of
proposal - E-solutions Proposal
- Element of Industry Canadas broader ICT Sector
Strategy - Election call has introduced further delays and
uncertainties
12CAnet 4, Lightpaths and UCLP
13CAnet Generations
14CAnet 4 Overview
- National Backbone Connects regional RE
networks (ORANs) in every province, with links to
global counterparts - Very High Bandwidth Currently based on five 10
Gbps wavelengths - Hybrid Design Fraction of one lambda is run as
layer 3 network balance of capacity is
allocated as separate lightpaths to specific
research projects and services (a.k.a. lambda
network) - Enables e-science For example, supports
dedicated connections to beamlines at Canadian
Light Source remote HPC and visualization
clusters telescopes distributed sensor arrays
data repositories etc.
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16Global Lambda Integrated Facility
Research Education Network bandwidth for
scheduled application and middleware research
experiments
17LightPath Examples
- KREONet2 to StarLight Network link 10G
- UoAlberta to CERN ATLAS High Level Trigger 1G
- Montreal to Emily Carr Institute Art Net 155M
- McGill to Fermilab Data Transfer 1G
- Ireland to Chicago Network link 1G
- Victoria to Ottawa to Montréal Linking NRC
Institutes 1G - Nortel (Ottawa) to Chicago Research 1G
- Alberta (WestGrid) to Fermilab Data transfer 1G
- TRIUMPH to CERN Data transfer 10G
- Chicago to NewYork GLORIAD 1G
- Montreal to Hull RISQ backup 1G
- Kingston to Chicago Data Mining 1G
- Ottawa (CRC) to Barcelona UCLP Demo 1G
- California to Europe Caltech performance
testing 1G - Seattle to Ireland UCLP demo 1G
18CAnet 4 Architecture
Edmonton
Saskatoon
St. Johns
Calgary
Regina
Winnipeg
Charlottetown
Vancouver
Fredericton
Montreal
Halifax
Victoria
Ottawa
Optical Switches
Chicago
Seattle
New York
Toronto
19User Controlled LightPaths (UCLP)
- Status
- Software to partition and distribute control of
optical switches - Allows users to create and manage end-to-end
lightpaths from the edge - Uses web-services based Service-Oriented-Architect
ure (SOA) - Three designs for initial version (UCLP v1)
funded - Diffusion is underway (open source)
- Deployed across CAnet 4, KREOnet, I2Cat
- Used by ORANO, Netera, BCnet, HEAnet, RISQ
- Being tested by Internet2, SURFnet, AARnet,
Nortel, Cisco, Meriton and others - UCLP v2 development underway with three
additional contracts
20New CAnet 4 Programs
- ORAN Support and Outreach
- 15 million
- to support lightpath capability
- to ensure universities, colleges and remote
campuses can access CAnet 4 - to undertake promotion and awareness activities
(1 m) - provincial allocations confirmed
- STATUS Several Statements of Work approved and
work started - CANARIE Connections Program
- 10 million
- to assist federal labs and private sector to
connect sites and facilities to CAnet 4 - Submissions received from NRC, NRCan,
Environment, DFO, Agriculture Canada, Stats
Canada and others - STATUS First connections approved first
departmental MOU signed other discussions
continuing - Intelligent Infrastructure
- 15 million
- to extend Service Oriented Architecture (SOA) to
instruments, sensors and controllers and other
next-generation applications - STATUS First seven projects chosen other
discussions re gaps and opportunities underway
21Grids and Intelligent Infrastructure
22ATLAS Grid
- TRIUMF has been selected as Tier 1 site for CERN
data - One of only ten Tier 1 sites in the world
- Requires 10 Gbps connection to CERN by Q1-2006
and 5 Gbps connection to backup site - Will also require dedicated 2 Gbe lightpaths to
Tier 2 sites - Circuit may also be used to support a routed
network for HEPnet (Canadas High Energy Physics
network)
23Astronomical Data Storage
- NRC is major participant in two Hawaii-based
telescopes - CFHT Canada France Hawaii Telescope
- Gemini Hawaii and Chile
- NRC Herzberg will be main repository for
telescope data - Initial data volumes in 2005 will be over 7
Terabytes per month - Increasing to 100 Terabytes per month by 2006
- Collaborative project involving NRC, CANARIE, the
Australian research network AARnet, National
Lambda Rail in U.S. to swap lightpaths in order
to make all the connections from the telescopes
to Canada
24Neptune Grid
- Joint US-Canadian project to build large undersea
fiber network off west coast of US and Canada - Undersea network will connect instrumentation
devices, robotic submarines, sensors, under sea
cameras, etc - Distributed computing and data storage devices on
CAnet 4 and Internet 2 will be used to analyze
and store data
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26U.S. Cyberinfrastructure
www.nsf.gov
Information technology-enabled systems, tools and
services have accelerated science and engineering
research and education. Integrated to create a
national cyberinfrastructure, these systems,
tools and services are enabling individuals,
groups and organizations to advance science and
engineering in ways that revolutionize what they
can do, how they do it, and who can participate.
27U.S. Cyberinfrastructure
Peter, Arzberger, Chair of the PRAGMA steering
committee in GRIDtoday
CI research itself includes building new
networking protocols, determining how to discover
and access remote resources, providing
programming abstractions of distributed resources
to make them appear local, and understanding how
science can take advantage of the networked
world. I want to call out explicitly that a
frontier component of CI is on the "edges," where
researchers are extending the physical
infrastructure to sensors and sensor networks
wirelessly.
28U.S. Cyberinfrastructure
Arden L. Bement, Jr., Director, NSF
To realize the enormous potential of CI, new
collaborations and partnerships are needed.
Tighter bonds must be forged among the science
and engineering community to ensure the broadest
possible participation among researchers. New
collaborations with the private sector are
critical, as they will create the equipment that
underpins tomorrows cyberinfrastructure.
Finally, new partnerships will be needed across
the globe, to glean insight, ensure openness,
interoperability and a high level of trust within
the international community.
29E.U. e-Infrastructures
http//www.cordis.lu/ist/rn/ri-cnd/einfrastructure
s.htm
- The term e-Infrastructure is used to
indicate the integrated ICT-based Research
Infrastructure in Europe building on networks,
supercomputers and storage... The initiative is
intended to support the creation of a framework
(political, technological and administrative) for
the easy and cost-effective shared use of
distributed electronic resources across Europe -
particularly for grid computing, storage and
networking.
30e-Infrastructures Roadmap
http//www.e-irg.org/roadmap/eIRG-roadmap.pdf
- In 2004 the EC proposed to have a strategic
roadmap for Research Infrastructures for next
10-20 yrs. - Four roadmaps Physical Sci/Engineering, Life
Sci., Social Sci/Humanities and e-Infrastructures
- Key components off the current e-infrastructures
roadmap (version 9) are - networking infrastructures The network,
including lambda-networks, is at the heart of
everything - middleware and organisation The
middleware and virtual organizations connect the
distributed resources, data and storage
facilities in a seamless way. Middleware plays
the intermediary role to facilitate a deep
integration of individual components. New
processes and procedures have to be devised to
alter the way organisations work. - resources The European Science Grid
should be populated with a number of resources,
covering literally everything that is of interest
to science from computers, large storage
facilities, telescopes, satellites, special
physics equipment, weather balloons, lasers,
spectrometers, visualization means, large sensor
networks, large data collections, artificial
intelligence agents and even people.
31E.U. Adaptive Services Grid
www.asg-platform.org
- Project under Sixth Framework Programme
- Over the last few years, the service-oriented-arc
hitecture (SoA) paradigm has gained massive
interest from industry and academia...it will
have massive impact on how we build software
systems in the future, Mathias Weske, ASG
Scientific Coordinator - The use of Grid technology in the underlying
infrastructure ensures efficient resource
usage... - The ASG consortium has 22 partners from six EU
countries and Australia
32SoA
Peter Brantley University of California, Digital
Library
- A set of self contained functional components (of
higher level applications) encapsulated as
services - Interaction between services through well-defined
interfaces - Interaction details that are hidden behind the
service interface - Enables new modes of user interaction
- Fundamentally alters the meaning of an
application and the means by which data can be
retrieved, edited, manipulated and re-inserted - An application is now the sum of functions
(services) addressable through APIs (interfaces) - Mashups are combinations of disparate services
through a common interface
33In brief....
Peter Brantley University of California
- SoA is about putting down the paving, the
yellow median stripe, and the shoulders for a
fast road. It's about letting folks drive it
without steering for them. Basically, drivers
need minimal guidelines stay on the road, don't
go in the wrong direction. By providing simple
and excellent infrastructure, you don't have to
design the next generation car - the users will
do it for you. You just need to get out of the
way.
34Kepler
Paul Tooby, Bertram Ludäscher, UCSD
(http//kepler-project.org/ )
- Scientists typically carry out tasks involving
the design and execution of a series of steps, or
workflow - Kepler helps organize and automate scientific
tasks, a sort of "scientific robot" - Easy for scientists to create both low-level
'plumbing workflows' to move data around, start
jobs on remote computers and create high-level
data analysis pipelines chaining together
standard or custom algorithms - Researcher begins by identifying and accessing
initial data sets, and proceeds through
additional steps using software tools such as
modeling and simulation programs, image
processing programs and visualization software - Systematic approach to scientific workflows also
intended to promote communication and
collaboration through publishing analyses,
models, data transformation programs and derived
data sets, giving scientists a way to track
provenance
35Typical Hierarchical System
VPN
USER
Security
Process
Process
Process
Data Management System
Process
Process
LAN
Instrument Pod
LAN
Layer 3 switch/router
Layer 2 switch
Sensor
Sensor
Instrument
Instrument
Sensor
36SoA Approach
WS
CANARIE UCLP
WS Process
WS
WS HPC Process
WS
WS
New Web service
Lightpath
WS
WS
New development
ONS15454
WS
CAnet 4
USER with Workflow software
Log Archive Process 2
WS
Log Archive Process 1
WS
Data Management System
LAN
WS
SoA Registry
Instrument Pod
LAN
WS
Sensor/Instrument
WS
37Australias e-Research Coordinating Committee
Interim Report
Context
- Advances in ICT make it easier to access,
diffuse, communicate and manipulate large
quantities of data, information and knowledge.
This is a worldwide phenomenon ... - The ability of researchers to access data,
research facilities, computational capacity and
capability and to work together online, through
advances in ICT, is a significant enabler. - Australian researchers are already increasingly
undertaking research in collaboration with other
researchers, in response to the growing scale and
complexity of research ...This is occurring on a
national, international, public and private
sector, and inter-disciplinary basis.
38Australian Report Issues
- 1. Human capabilities
- success of the strategic e-Research framework
will be dependent on people - researchers need easy and structured ways of
acquiring basic e-Research skills. - researchers need day-to-day support and high
level ICT and information management support - 2. Access to data
- Digital data in all its manifestations is now the
core of modern research and knowledge generation - Stakeholders need to adopt best practice in data
management, standards and security - 3. Need for linkage of e-Research resources
- researchers need to seamlessly link networks,
repositories, instruments and distributed
computers -
- 4. Structural and cultural change
- The increasing adoption of e-Research will
require change to organisational structures and
cultures - 5. Lack of awareness and support
- take-up of ICTs and infrastructure has not been
equally experienced in all disciplines. - 6. More collaboration in research
39Australian Report
- Recommendations
- 1. The Committees final report will include an
implementation plan - 2. As a matter of priority, the Committee will
report back to Ministers on strategies and
actions aimed at addressing the skills issues - 3. The e-Research strategic framework developed
will address the need for an integrated approach
in undertaking further research into e-Research
enabling technologies and applications - 4. The Committees final report will specifically
address the delivery of e-Research outreach,
support and research activities on a national
basis. - http//www.dest.gov.au/sectors/research_sector/pol
icies_issues_reviews/key_issues/ncris/strategic_ro
admap.htm
40Thank you !Are there any questions?