Networked Computing for the 21st Century
Netamorphosis
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Overview
Advanced Regional Prediction System (ARPS)
Automating the construction site -- a leap in capabilities
Cave5D: A tool for collaborative immersive visualization
of environmental data
Collaboratory for structure-based drug design
Earth data from satellite to desktop
Echocardiography over the NGI
Exploring the Earth system on the "Second Web"
Informedia News-on-Demand
Interactive video dialogues
MAGIC: Viewing large geographic areas in 3-D
Materials Microcharacterization Collaboratory (MMC):
Studying state-of-the-art materials
Nanotechnology research: controlling atoms from a distance
Octahedral hexapod: An Information Age machine tool
Real-time functional MRI: Watching the brain in action
Security technology for the Next Generation Internet
SF Express: Advanced battle simulation
Visible Human Project


Overview

On March 11-13, 1998, Congressional representatives, administration officials, and the general public had an opportunity to view the future of the Internet firsthand at "Netamorphosis," a demonstration of technologies and applications being developed by the Federal NGI R&D initiative. In cooperation with Highway 1 and the High Performance Computing and Communications Consortium, representatives from the White House, seven Federal agencies, academia, and industry showed members of Congress how further development of Internet technologies will lead to advancements in healthcare, the environment, manufacturing, defense, and education. The demonstrations were mounted by the agency members of the LSN Working Group -- DARPA, DOE, NASA, NIH, NIST, NOAA, NSA, NSF, and VA. Support and technical contributions were also provided by Bell Atlantic, Cisco, Highway1, IBM, Internet2/University Corporation for Advanced Internet Development (UCAID), and MCI.
 
 
Senator Bob Kerrey (D-Nebraska) discusses the Netamorphosis demonstrations with Presidential Advisory Committee Co-Chairs Bill Joy (Sun Microsystems) and Ken Kennedy (Rice University).

 
Netamorphosis demonstrations were made possible by a state-of-the-art networking systems including NSF's vBNS and DARPA's ATDnet. However, all demonstrated applications require further advancements in networking technologies to make them fully functional, widely available, and affordable. Demonstrations included:



ARPS

Advanced Regional Prediction System (ARPS)
Poster 18
http://www.caps.ou.edu/ and http://throttle.ou.edu/
 
Researchers at the University of Oklahoma, with Federal funding from NSF, NOAA, and the Federal Aviation Administration (FAA), demonstrated a prototype numerical weather prediction system developed to forecast intense small-scale spring and winter storms up to several hours in advance. In some cases, the system can pinpoint their locations within one or two counties.
 
"This new technology has the potential to save lives and millions of dollars in weather-related revenues lost each year in commercial aviation, agriculture, surface transportation, power and communications utilities, and recreation," said Kelvin Droegemeier, Director of the University of Oklahoma center for Analysis and Prediction of Storms (CAPS), and one of the demonstration's participants. "In forecasting, speed is the name of the game. Unfortunately, current limited network capacities prevent CAPS from providing all available data to forecasters and other end-users in a timely manner. We need about a factor of 100 more bandwidth, and it is just not available right now. This is where the NGI Initiative will provide a valuable service," said Droegemeier.
 
Other Netamorphosis demonstrations included:



Automating the
construction site


Automating the construction site -- A leap in capabilities
Poster 8
http://www.nist.gov/mel/namt/
 
TETRA, a versatile robotic crane, is one of several experimental technologies being investigated at NIST's new National Construction Automation Testbed (NCAT). These technologies will be used in developing standards for wireless tracking, positioning, and control of machines at construction sites and for supporting interactive construction management systems. At NCAT, researchers are developing an infrastructure for modeling, simulating, and automating dangerous or error-prone construction tasks; remote site-management; and up-to-the-moment access to all site-related information, from architectural designs, to subcontractor schedules, to the status of machinery. Anticipated benefits include improvements in safety, productivity, and quality.

  • NGI research needs include the transmission and processing of huge volumes of position data and other information originating from global positioning satellites, hard-hat-mounted displays, and innovative surveying systems for wireless tracking of machines and other construction-site components.



Cave5d

Cave5D: A tool for collaborative immersive visualization of
environmental data

Poster 15
http://www.ccpo.odu.edu/~cave5d/
 
Cave5D uses atmospheric and oceanographic data to create interactive virtual reality simulations of wide area environments such as the Chesapeake Bay. Simulations are viewed in 3-D on the ImmersaDesk. Researchers study the effects of physical phenomena such as wind, rain, and chemical pollutants on ecosystem behavior. For example, simulations can help scientists and environmental and fisheries managers forecast the likely path of an oil spill and analyze how winds and tides affect distributions of larval fish.

  • NGI research needs include an advanced networking infrastructure linking ImmersaDesk sites to allow scientists in many locations to collaborate on environmental research.

Demonstration of virtual reality simulation of wide area environments such as the Chesapeake Bay environment using the Cave5D ImmersaDesk.



Collaboratory for
Drug Design


Collaboratory for structure-based drug design
Poster 1
http://www.cgl.ucsf.edu/home/research/collaboratory/
 
A prototype collaborative environment for carrying out interactive 3-D studies of molecular structure among scientists at distant locations. The collaboratory is used for drug design, protein engineering, biomaterials design and fabrication, and bioremediation.

  • NGI research needs include advancements in high performance network access, collaborative molecular modeling software, and desktop videoconferencing.



Earth data from
satellite to desktop


Earth data from satellite to desktop
Poster 17
http://www.nren.nasa.gov/eos_distribution.html
 
With the Distributed Image SpreadSheet (DISS), scientists working at their own desks visualize, manipulate, and analyze massive amounts of data collected by Earth Observing System satellites and stored at specialized archive centers around the country. The current version of the DISS, available to researchers for evaluation, enables the analysis of large amounts of data produced by next generation satellite systems.

  • Currently using OC-3 bandwidth, a significant improvement over T-3, the DISS requires very low delay times and steady picture quality. NGI research needs include advancements toward OC-12 or higher bandwidths on distributed file systems and optimization of input/output performance.

High performance connections between data repositories and the scientists' desktops are critical to remote visualization. NREN and the Distributed Image SpreadSheet allowed scientists to visualize, analyze, and manipulate years of Earth Observing Satellite data at their desktops. Pictured is an image of Hurricane Linda.



Echocardiography over
the NGI


Echocardiography over the NGI
Poster 3
http://www.nren.nasa.gov/echo.html
 
Interactive echocardiography generates full-motion video of cardiac structure and cardiovascular blood flow and delivers these images in real-time to physicians in remote locations. It is being used at Cleveland Clinic Foundation, satellite facilities in Ohio and Florida, and the clinic's outpatient labs. Echocardiographs are transmitted from the cardiac operating room to locations where cardiologists provide guidance even when they are not physically present in the operating room. Echocardiography images are also relayed from satellite facilities to the main facility for diagnosis. Remote echocardiography will be critical for the future international space station, in battlefield conditions, and in medically underserved areas around the world.

  • NGI research needs include increased guaranteed bandwidth and end-to-end differentiation of service to distribute 30 megabytes/second of full-screen, full-motion image data over wide-area networks.



Exploring Earth System
on Second Web


Exploring the Earth system on the "Second Web"
Poster 16
http://www.scd.ucar.edu/vg/EarthSystemWeb/
 
This environment for exploring the Earth system uses new 3-D Web technologies to teleport viewers into high-resolution, stereo/3-D explorations of tropical storms, forest fires, clear air turbulence, cyclones, and El Niño. Researchers and educators create and share Earth system data to study patterns and behaviors behind naturally-occurring and sometimes dangerous phenomena.

  • NGI research needs include high-bandwidth, wide-area networks with end-to-end differentiation of service, allowing multiple remote users to explore science together in virtual 3-D worlds.



News-on-Demand

Informedia News-on-Demand
Poster 11
http://www.informedia.cs.cmu.edu/
 
Informedia News-on-Demand provides "full content" search and retrieval from broadcast TV and radio news. Present applications include digital video library access for K-12 education and evaluation prototypes at DARPA and NSA.

  • NGI research needs include networking advancements in end-to-end differentiation of service, dynamic bandwidth adaptation, and secure and shared data annotation capabilities.


Explanatory posters (left) were displayed for each demo, highlighting the application, its NGI technology requirements, and sponsoring institutions or agencies.



Interactive video
dialogues


Interactive video dialogues
Poster 12
http://www.idrama.com/
 
These multimedia voice-controlled scenarios engage users and video characters in face-to-face dialogues concerning realistic, dramatic situations using the IDI (Interactive Drama Inc.) Defense Language Institute's Conversim interface software. Interactive video dialogues have a wide range of training and education uses, from combat casualty triage training, to information kiosks, to language training. For example, military linguists located anywhere in the world can sustain language proficiency by routinely talking in virtual dialogue with native speakers.

  • NGI research needs include enhanced network capacity to accommodate large quantities of full-motion broadcast-quality video in an interactive format.



MAGIC

MAGIC: Viewing large geographic areas in 3-D
Poster 14
http://www.magic.net/
 
The MAGIC information system allows interactive viewing of large geographic areas in 3-D by retrieving and merging massive volumes of remotely located data, including aerial and satellite imagery, and data describing topography, weather, buildings, and other objects. MAGIC is applicable to military personnel planning a mission or assessing battle damage, emergency teams fighting a forest fire or organizing hurricane relief efforts, and environmental workers evaluating flood conditions.

  • NGI research needs include widespread access to high-speed networks, distributed processing, and techniques for controlling access to computing and data resources. Combined with MAGIC's application- and network-based storage system, these capabilities will enable people in disparate locations to respond quickly and collaboratively to time-sensitive events.


The MAGIC information system (left) demonstrated interactive viewing of large geographic areas in 3-D by retrieving and merging massive volumes of remotely located data.



MMC

Materials Microcharacterization Collaboratory (MMC): Studying state-of-the-art materials
Poster 5
http://tpm.amc.anl.gov/mmc/
 
The MMC, linking five national research facilities, allows scientists and researchers to use state-of-the-art instruments to study the structure and composition of metals, ceramics, and alloys, and to conduct basic and applied research in materials science -- especially strength and fracture toughness, corrosion and wear resistance, critical fields and transport current in superconductors, electronic and magnetic properties of metallic alloys, ceramics, semiconductors, artificially layered superlattices, and the properties of catalysts and engineered materials.

  • NGI research needs include security, privacy, reliable connectivity, real-time sustained high-speed data delivery, video/audio conferencing capabilities, and end-to-end differentiation of service assurances that unite the five research facilities into a single online interactive Internet-accessible laboratory.


Setting up the camera for the MMC collaboratory demonstration. The MMC allows scientists and researchers to use state-of-the-art instruments to study the structure and composition of materials.



Nanotechnology research

Nanotechnology research: controlling atoms from a distance
Poster 6
http://www.nist.gov/mel/namt/
 
The Scanning Tunneling Microscope (STM) can measure and manipulate atomic structures (measured in nanometers, or billionths of a meter), whose images have been magnified to a workable human scale. The Field Ion Microscope is used to shape the STM's probe, or tip, so it can accurately measure these structures. Manufacturing researchers use the STM and its close relative, the Atomic Force Microscope, as quality control tools for developing standard measurements of small-scale products and their component parts, such as computer chips and their circuitry.

  • NGI research needs include a high-speed, secure, reliable network and simultaneous voice, video, and data transmission to make these microscopes, located at NIST'S Gaithersburg, MD, campus, accessible by remote control to companies and universities nationwide.



Octahedral hexapod

Octahedral hexapod: An Information Age machine tool
Poster 7
http://www.nist.gov/mel/namt/
 
The hexapod is an innovative experimental metal-cutting machine tool with the potential to deliver an unprecedented combination of versatility, speed, accuracy, and portability. Industry and university researchers are working with NIST to investigate the hexapod's potential performance advantages, from lower production costs to faster methods for making parts, molds, and dies.

  • NGI research needs include real-time, full-motion video plus 15 Mbps bandwidth in a dedicated, secure environment -- technology not widely available and currently prohibitively expensive for most organizations that contribute to and benefit from network-enabled manufacturing research collaborations.


NIST exhibitors demonstrated real-time control and interaction of the octahedral hexapod.



Real-time functional MRI

Real-time functional MRI: Watching the brain in action
Poster 4
http://www.psc.edu/science/goddard.html
 
The "brain in action" allows remote viewing of brain activity while a patient is performing cognitive or sensory-motor tasks. Neurosurgeons, neurologists, psychiatrists, and brain scientists investigate brain function to diagnose and treat brain diseases. This application will enable neurosurgeons to develop surgical plans for removing a tumor based on an understanding of the cognitive and sensory-motor abilities located near the tumor site.

  • NGI research needs include improvements in available capacity, interactive real-time capability, security, privacy, and integration with advanced computing to ensure high performance, widespread availability, online visualization, and patient confidentiality.


Michael Ackerman of NIH/NLM outlines how biomedical research applications and healthcare will benefit from developing NGI technologies.



Security technology

Security technology for the Next Generation Internet
Poster 9
http://www.antd.nist.gov/itg/
 
A NIST prototype of Internet security protocol technology created a secure virtual private network, over the commercial Internet, for the telerobotic control data being transmitted between the Highway 1 demonstration site and the NIST campus. More than 60 commercial vendors of Internet technology, Internet service providers, universities, and Federal laboratories use this technology as a basis for further research into Internet security and as a reference from which to build and test commercial products.

  • NGI research needs include further work in security technology to address issues such as scalability, support for multicast, and automated management of cryptographic keys.



SF Express

SF Express: Advanced battle simulation
Poster 13
http://www.cacr.caltech.edu/~ddavis/sfexpress/
 
SF Express is a military training tool that integrates data on weather; terrain; land, sea, and air assets; and other strategic factors to create simulated battle environments. DoD personnel will create realistic distributed synthetic environments for training and mission rehearsal.

  • NGI research needs include high bandwidth, wide-area networks accommodating multiple users and real-time interactivity requirements.



Visible Human Project

Visible Human Project
Poster 10
http://www.nlm.nih.gov/research/visible/
 
The project has produced a digital image library of normal male and female human anatomy, combining CT, MR, and digital anatomical images that allow the creation of 3-D renderings of any part of the human body. This library serves as a common reference point for studying human anatomy, as a source for common public domain data for testing medical imaging algorithms, and as a testbed and model for constructing other network-accessible image libraries. Physicians, educators, artists, mathematicians, engineers, physicists, and industry researchers incorporate Visible Human data into applications ranging from virtual reality surgical simulations and crash simulation models to kindergarten curricula and multimedia artwork.

  • NGI research needs include high bandwidth on demand, end-to-end differentiation of service, and security for patient data.

The Visible Human Project has produced a highly-detailed digital image library of normal male and female anatomy. Images can be accessed for testing medical imaging algorithms, and as an atlas of the human body by healthcare researchers and users. Such uses require the high bandwidth and data security and integrity that are a major focus of NGI R&D efforts.

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