Connecting The World's Tallest Mountain The Evolution Of Networking On Mauna Kea CENIC 2009 Alan Whinery U. Hawaii ITS.

Slides:



Advertisements
Similar presentations
Southern Cross Cable Network. Pending US Connections to Northern Route of SX TransPORT AARNet Kahe Point Oahu Hillsboro Oregon Fiber/WDM to Portland Pwave.
Advertisements

David Lassner University of Hawaii Update from Paradise: Advanced Networking in Hawaii.
Ironwood Remote Observatory (IRO) Kenneth Archer July 2007 Ironwood Observatories.
Telescopes For all the colors of light. Similar to the telescope Galileo used to see the moons of Jupiter, the moon, and Venus Uses Lenses!
Networking: Computer Connections Chapter 7 Data Communications Send and receive information over communications lines.
Inside a Volcano Contains magma that is over 3000º F Contains rock fragments Volcanic dust: 1/400 of an inch in diameter Volcanic ash: 1/5 of an inch.
TEL 355: Communication and Information Systems in Organizations Digital Loop Carrier (DLC) Professor John F. Clark.
Jim Kennedy AMPATH Meeting 31 January 2003 The Gemini Observatory: An Application of High-Performance Networks Tools in Modern Astronomy.
Computers Are Your Future Twelfth Edition Chapter 8: Wired and Wireless Communication Copyright © 2012 Pearson Education, Inc. Publishing as Prentice Hall.
1 Earth’s Atmosphere & Telescopes Whether light is absorbed by the atmosphere or not depends greatly on its wavelength. Earth’s atmosphere can absorb certain.
Thought For The Week No Question Is A Bad Question!
Access and Interconnection Technologies. Overview Two important Internet facilities – Access technologies used to connect individual residences and businesses.
Light and Telescopes Chapter 5. Traditional Telescopes The 4-m Mayall Telescope at Kitt Peak National Observatory (Arizona)
Computers Are Your Future © 2006 Prentice-Hall, Inc.
GENS4001-X1Observing the Universe / Antarctic Astronomy 1 Lecture 4: Observing the Universe and Astronomy in Antarctica Dr Michael Burton.
1 Chapter 7 Networking: Computer Connections. Basic Components of a Network Sending device Communications link Receiving device.
January 24, 2006Astronomy Chapter 5 Astronomical Instruments How do we learn about objects too far away for spacecraft? How do telescopes work? Do.
Data and Computer Communications
Networks Evolving? Justin Champion C208 Ext:3723
Electromagnetic Waves for Physics and MOSAIC A Physics MOSAIC MIT Haystack Observatory RET 2010 Background Image from Wikipedia, Creative Commons.
Modern Telescopes and Ancient Skies New Views of the Universe An IU Lifelong Learning Class Tuesdays, May 10, 17, 24 III. 30-meters and beyond.
Data Centers and IP PBXs LAN Structures Private Clouds IP PBX Architecture IP PBX Hosting.
Mauna Kea Observatory Jordan Matayoshi Shae Otsuka.
Observational Astronomy. Astronomy Primary Goal: Understanding the nature of the universe and its constituents Means: Equipment building, research, teaching.
Using the Electromagnetic Spectrum
1 SX TransPORT - the infrastructure to support e-science George McLaughlin Director, International Developments, AARNet APAN January 2005 Bangkok.
Part I: A Trip Through the Universe “Our Transportation” STARS AND GALAXIES 1.
How Big is the Earth A glimpse at the earth’s size and atmosphere. By Vincent Sapone 1.
ICFA HEP Grid and Digital Divide Workshop May 2005 Daegu, Korea George McLaughlin Director, International Developments AARNet Digital Divide Australia.
Global Collaboration to Support Global Connectivity for Astronomy David Lassner Chief Information Officer University of Hawaii
Chapter 7 WANs and Remote Connectivity. WAN Essentials A WAN traverses a large geographic area A WAN link is a connection from one site to another and.
Chapter 6: The Tools of the Astronomer. Telescopes come in two general types Refractors use lenses to bend the light to a focus Reflectors use mirrors.
Telescopes and the Atmosphere Our goals for learning How does Earth’s atmosphere affect ground-based observations? Why do we put telescopes into space?
SIGNALING. To establish a telephone call, a series of signaling messages must be exchanged. There are two basic types of signal exchanges: (1) between.
Networks for Distributed Systems n network types n Connection-oriented and connectionless communication n switching technologies l circuit l packet.
E-VLBI at ≥ 1 Gbps -- “unlimited” networks? Tasso Tzioumis Australia Telescope National Facility (ATNF) 4 November 2008.
OBSERVATION OF THE BINARY STAR NN SER USING THE FAULKES TELESCOPE Anne O ’Leary –Sacred Heart Grammar School Newry This project was carried out at the.
International eScience Infrastructure Bill St. Arnaud
Utah Telescope Site Selection 2008 D. Kieda, S. Lebohec, W. Springer, P. Gondolo, K. Martens, P. Gondolo, P. Ricketts, C. Zimmer University of Utah.
MOTOROLA and the Stylized M Logo are registered in the US Patent and Trademark Office. All other product or service names are the property of their respective.
HIGH SPEED WIDE AREA NETWORKS BYWANJAU. Introduction  WANs – Group of LANs linked together by communication service providers over large geographically.
Network Instruments VoIP Analysis. VoIP Basics  What is VoIP?  Packetized voice traffic sent over an IP network  Competes with other traffic on the.
The Akamai Observatory Short Course AOSC 07 Anticipated Core Team S. Anderson (Keck) : Hawaii Island Internship Program Coordinator D. Le Mignant.
CHAPTER 3 TEMPERATURE AND HUMIDITY EXTREMES CHAPTER 3 TEMPERATURE AND HUMIDITY EXTREMES.
Telescopes Notes.
Astronomy! Emily Cunningham Institut d’Astrophysique de Paris.
Managing Telecommunications Chapter 6 Emily Gehm Jessica Paul Melanie Wall.
Weather and Climate. How many people know what the weather is going to be the next three days? How do you know? Can you predict the weather?
Hawaii There are 8 islands in the main Hawaiian chain. 6 are inhabited. We live on the island of Hawaii, also known as “The Big Island” We live in a town.
Mauna Loa Pacey Ludlam Spring 2013 PACE. About the Mauna Loa You may have thought that Mount Everest was the largest mountain, but you were wrong. Everest.
AIR Where should we place the collectors? The students worked in groups and presented their proposals. Collecting: At five various locations in the schoolyard.
3/20: Telecommunications & Networking What is telecommunications? The hardware: physical components of telecommunications, inc. channels Standards: agreements.
Keck Observatory Overview Peter Wizinowich W. M. Keck Observatory AOSC May 31, 2004.
1 Earth’s Atmosphere & Telescopes Whether light is absorbed by the atmosphere or not depends greatly on its wavelength. Earth’s atmosphere can absorb certain.
 ¾ of earth is water  Countries of the World: 196 Countries of the World  Earth's Circumference at the Equator: 24, miles (40, km) 
Copyright © 2006 by The McGraw-Hill Companies, Inc. All rights reserved. McGraw-Hill Technology Education Chapter 7B Data Communications.
Presented By: Gavin Worden Leased Lines vs. Internet Based VPNs.
Building Corporate Data Networks – A Case Study
Homework #4 1.What is the maximum resolution of your eyes (assume the wavelength range that your eyes are sensitive to is 300 – 700 nm and that your iris.
Mauna Kea Observatories Communication Network Architecture February 1, 2005 at the Canada-France-Hawaii Telescope, Waimea Headquarters Pui Hin Rhoads Institute.
Networks Are you Wired?. Networking A network is defined as two or more computers connected together –Peer-to-peer when a server is not involved. –Client-server.
Interferometry Based on the idea of filling the aperture of a camera:
Chapter 6 Astronomical Instruments
A brief history of astronomy in Hawai’i
Curt Dodds, Institute for Astronomy
CFHT is hot! (and cold) Kevin Ho, Derrick Salmon, Steve Bauman
Hawaii Volcanoes National Park
Optical Telescopes, Radio Telescopes and Other Technologies Advance Our Understanding of Space Unit E: Topic Three.
Optical communications & networking - an Overview
Presentation transcript:

Connecting The World's Tallest Mountain The Evolution Of Networking On Mauna Kea CENIC 2009 Alan Whinery U. Hawaii ITS

Glossary HP = Hale Pohaku (Stone House): mid-level lodging for transient staff IfA – UH Institute for Astronomy: operator of UH and NASA IRTF telescopes UHM – UH Manoa in Honolulu Hale Pohaku 1991

Geo Orientation

Mauna Kea (White Mountain) Dormant shield volcano 13,803 feet (4,207 m) above sea level 33,476 feet (10,203 m) tall Summit: Alpine desert Aeolian ecosystem Lower: Mamane forest

Working environment at 4200m Air density/pressure - roughly 60% of sea level increases heart and respiration rates causes increase in red blood cell production increases blood pH (more basic) redirects blood flow to brain and lungs … at the expense of digestive and muscular systems impaired cognition, reduced visual acuity, sensitivity reduced pain, hunger, thirst response tunnel vision, vertigo, panic attacks can occur ear/nose/sinus congestion can be serious makes it extremely hard to sleep

Working environment at 4200m air humidity often in single digit % RH (remember reduced thirst response??)  hydration needs to occur without thirst dehydration of skin requires management Electronics hate low humidity, since it means high ESD When it's inclement, it's really inclement high winds freezing cold snow (binding & blinding) But generally, weather is very nice.

Traversing The Wilderness Original saddle road built by U.S. Army, 1942 Original summit road dozed in road miles from Hilo Airport to summit (22 crow miles) 37 miles from Hilo to HP are rough and steep, gaining 9200 ft. elevation 8 miles from HP to Summit gain 4400 ft more.

High Altitude Wildlife Examples of life above 10,000' Wēkiu (summit) bug (discovered 1979) lycosid spiders High alpine desert life is sparse, but delicate Multiple endangered species, and introduced competitors present loss of habitat is a concern Eco-systems below 10,000' are much more apparent, and face many challenges from various land uses including astronomy Photo: Karl Magnacca

Sacred Hawaiian Places Hawaiian belief and tradition regards the summit area as sacred, and home to various deities Many other cultural aspects are linked to Mauna Kea

Mauna Kea Observatories Planetary Patrol 24” (Removed for Gemini) 1970 Air Force 24” 1970 UHM 88 inch (to be removed for PanSTARRS) 1970 Canada-France Hawaii Telescope 1979 NASA Infrared Telescope Facility 1979 UK Infrared Telescope 1979 John Clerk Maxwell Telescope 1987 Caltech Submillimeter Observatory 1988 NRAO VLBA 1992 Keck I 1993 Keck II 1996 Gemini North 1999 Subaru N.A.O. Japan 2000 Smithsonian Millimeter Array 2000

Connectivity Drivers Remote observing Image size/storage Read -> buffer -> store Observing methods and work flow Automation changes the way observers observe The Internet/Digital Lifestyle

Remote Observing Controlling the instrument Quick output evaluation Controlling the telescope Telescope operator at summit Requires availability/functionality

Image Size Graph:G. Luppino

Connectivity Challenges Observatories are on a mostly-rural island in the middle of the Pacific Ocean 45 miles of road with no adjacent infrastructure, through protected wilderness Distances made MM fiber impractical Initially, availability of equipment made SM fiber an expensive pain-in-the- Sub-millimeter instruments and general RFI preclude microwave/RF Equipment failure rate somewhat higher at the summit (this is my opinion). Checked baggage syndrome possibly a factor

Evolution Of MKO Connectivity 1969 – RFC 1 published; U NIX developed; observatories constructed (operational in 1970) UH 88” is an early example of a computer-controlled telescope Astronomy uses photographic plates Initially voice is by VHF mobile telephone/radios 1970's – GTE Hawaiian Telephone places microwave at summit, makes POTS and lease-able data circuits available 1982 – first CCD imager on Mauna Kea beginning of RFI concerns Hlivak, Colucci transport first hard disk to summit by truck.

Evolution Of MKO Connectivity(2) 1987 – JCMT/CSO sub-millimeter instruments add to concerns about RFI 3/1987 – UHM Initial 9600 bps IP connection 9/1988 – UHM IP connection is 512 kbps 1989 – CFHT gets 14.4 kbps leased line via summit microwave to UHM 1/1991 -Acceptance of GTE-built SM fiber plant interconnects 4 telescopes, HP and Humu'ula microwave site, 3 miles south of HP. Includes IfA-owned strands, and GTE-owned strands. All RF emitters banned from summit

Evolution Of MKO Connectivity(3) 7/1991 – MKO FDDI operational Internet connectivity is still 14.4 kbps via CFHT Use of singlemode fiber required MM/SM converters 12/1991 – UHM link to mainland upgraded to T1 UH Inter-island network primarily T1 1/1992 –T1 operational from HP to Manoa Several telescopes obtain summit-to-base links Remote observing starts, mostly using turnkey videoconferencing systems 12/1996 – UHM mainland link to Mbps Reliability disagreeable

Evolution of MKO Connectivity(4) 9/ Fiber from HP to Hilo is completed Some summit to base links are upgraded to DS3 3/1998 – Planned implementation of laser guide stars places new requirements on summit network for traffic control and aircraft detection. Network loss with multiple LGS will mean loss of observing time. 4/1998 – Upgrade of UHM mainland link to Mbps 8/1998 – summit microwave shut down

Laser Guide Star (LGS) Photo:Paul Hirst

Evolution of MKO Connectivity(5) 11/1998 – UHM mainland link to DS3 12/1998 – OC3 ATM network on summit operational 5/1999 – UH 10 Mbps ATM PVC set up to Abilene/Internet2, courtesy DREN 3/2000 – DS3 ATM links from UHM to Hilo and from Hilo to Summit 6/2000 – FDDI turned off; OSPF turned on 6/2001 – pervasive wireless laptop NICs leads to policy prohibiting at the summit, as well as cell phones UH Interisland to OC3 microwave

Evolution of MKO Connectivity(6) 12/ Multiple LGS operational on summit 1/ U. Hawaii inter-island OC3 network reaches Hilo/MKO 7/2005 – Observatories use UHM conference system for 3-day Deep Impact virtual meeting. Peak usage is 18 video, 5 phone participants, on impact day. 12/ Link from Hilo to Summit upgraded to 100 Mbps

Evolution of MKO Connectivity(7) 4/2007 – Summit network changed from ATM to GigE 11/2007 – SX Transport system drops 1 GE to Big Island for MKO, with connections to Sydney and LA to summit and Hilo/Waimea 1/ Link from Hilo to Summit to GigE 6/ UH Interisland 1 GE

Pan-STARRS (2012) 4 ea. 1.4 GP (2.8 GB) cameras doing surveys of the complete visible sky each week 8 hours of 30 second exposures would yield 10.8 TB per night Moving 10.8 TB in 16 hours would require 1.5 Gbps (transfer rate, not bit rate) Will yield observing practices that will speed up observing