Full Index for Scripted foilset 
| We discuss role of commodity (Web) technologies in future high performance computing environments |
| We describe how a network of Web/CORBA/COM servers architecture can naturally support both parallel and distributed computing while |
| We describe applications to both metacomputing, and parallel computing |
| We suggest critical importance of CORBA and component based software in HPCC -- Javabeans seem very important |
| We recommend agreement on standard interfaces or frameworks for computing and essentially seamless user interfaces |
| We describe role of collaboration technology in linking computers with people |
| We describe use of Java as a general coding language for scientific and engineering computation |
| This approach unifies distributed event driven simulations with classic massively parallel time stepped computations |
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1
High Performance Computing (HPCC) based on Commodity(Web, CORBA,COM) Technologies December 27,97 -- January 6,98 Beijing and Chang Sha (Hunan Province) China
2
Abstract of Commodity Technologies in HPCC for China
3
Some International HPCC Activities
4
Some Concepts Learnt from HPCC Initiative
5
New Initiatives of Current HPCC
6
Some More Detailed Trends in HPCC
7
The Computing Pyramid
8
Some Performance Results of Interest from Salmon and Warren
9
Intermediate results of a computation of 322 million particles on ASCI Red
10
Intermediate results of a computation of 9.7 million particles on PC Cluster loki
11
Pragmatic Object Web Technology Model
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Fig. 5: Integration of Object Technologies (CORBA) and the Web
13
Architecture of HPcc Commidity Technology High Performance Computing System
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Fig. 14: Pure Corba architecture for the heterogeneous DcciS services of fig. 2.
15
Multi Tier Client-Server-Service Examples I
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Multi Tier Client-Server-Service Examples II
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Object Web Software is the Best
18
Synergy of InterNet and IntraNets
19
We have the Object Web Tools in Place I
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We have the Object Web Tools in Place II
21
Three Roles of Object Web Technologies in Computing
22
Some Tactical Opportunities of Object Web Technologies - I
23
Some Tactical Opportunities of Object Web Technologies - II
24
Some Classes of Applications
25
Computational Grid and the Object Web
26
Inevitable Relevance of the Object Web
27
Structure(Architecture) of Applications - I
28
Structure(Architecture) of Applications - II
29
HPCC Software issues
30
One Strategy for a Object Web-based Metacomputing
31
A Web-based 3-Tier Computing System
32
Web-Server based Metacomputer Capabilities at 3 levels
33
General Object Web based Middle Tier Server Architecture
34
Role of Collaboratory Systems
35
Some Capabilities of the Object Web (Server) Architecture for Computing
36
Glossary of Terms I
37
Today's Interoperating Hybrid Server Architecture
38
Planned Architecture of DARP User Level Debugging and Rapid Prototyping System
39
CORBA Software Model
40
Pure CORBA Architecture for a distributed Information System (There are similar COM and Javabean /RMI Versions)
41
Glossary of Terms III
42
Glossary of Terms II
43
Glossary of Terms V
44
Glossary of Terms IV
45
Glossary of Terms VI
46
There are (at least) 3 Major Roles for JAVA in Computation
47
The 3 Roles of Java
48
Java for Building User Interfaces
49
Summary of the VPL -- Virtual Programming Laboratory
50
Interoperable Interfaces
51
VPL 2.0 File Manager Screen
52
Login to SP2 with a Web Interface at NIST - I
53
Login to SP2 with a Web Interface at NIST - III
54
Overview
55
PPT Slide
56
Kivanc Dincer's Java FrontEnd to Pablo - I
57
What is Relevance of VRML(2) for Scientific Computing?
58
GIS integration with Weather Simulation application - II.
59
Metacomputing with Web Architecture
60
Article on MIP Sucking Java Applets
61
Web-Server based Metacomputer Capabilities at 3 levels
62
High Functionality Software Layer
63
Proposed Approach to High Performance Messaging
64
Three Possible Implementations of CFD CSM Linkage
65
Picture of JavaBean and JDK1.1 AWT Event Model
66
Some Capabilities of the Object Web (Server) Architecture for Computing
67
Web Architecture Supports Interpreted Environments
68
Integrated Compiled and Interpreted Environments II
69
Use of PCRC Infrastructure -- The HPF front-end to produce an Integrated Environment for HPF Compiler and Interpreter
70
Architecture of the Integrated Interpreter/Compiler System
71
Switching between compiled and interpreted modes
72
Use for Interactive Visualizations
73
Linkage of HPF Interpreter to Compiler
74
Planned Architecture of DARP User Level Debugging and Rapid Prototyping System
75
WebFlow Globus and FrontEnd (DARP,SciVis) Architecture II
76
Example of WebFlow = AVS/Khoros using Web
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WebFlow: Image Processing
78
Use of HSV filter in WebFlow
79
Use of Flip Filter in WebFlow
80
Use of Wave Filter in WebFlow
81
Code WebFlow and Image Processing Parameters for Spatial Filter from SciVis in WebFlow from DARP I
82
Code WebFlow and Image Processing Parameters and SciVis Output from DARP I
83
Component Based Programming Environments
84
What are JavaBeans I
85
What are JavaBeans II
86
What is a Module?
87
HPCC ComponentWare: Essential Ideas
88
3 by 3 Diagram of Programming Environments versus System Complexity from PC to HPCC
89
Component Model for HPCC
90
System and User Perspective
91
Fig. 13: Each node of a parallel computer instantiated as a Corba object.
92
A Message or Protocol Optimization Bridge
93
Fig 15: A message optimization bridge
94
Fig. 8: JDK 1.1 Event Model used by (inter alia) Javabeans
95
Fig. 13: Each node of a parallel computer instantiated as a Corba object.
96
Approaches to Distributed Objects
97
Java ORB Approaches to Distributed Objects - II The object web awakens!
98
Architecture of Object Web
99
HP-CORBA - I
100
HPCORBA Layer with SIO Analogy
101
HP-CORBA - II
102
New Java Frameworks for Advanced Web Services (I)
103
New Java Frameworks for Advanced Web Services (II)
104
Possible Java Frameworks for Computing
105
What/Why is a Framework?
106
Too many Frameworks!
107
Proposed Java Computing Services Framework
108
Possible Services in a Java Computing Framework - I
109
Possible Services in a Java Computing Framework - II
110
Integration of DIS with Object Web Based Computing
111
Technology Convergence Roadmap - Overview for Forces Modeling, Integrated Modeling and Testing for DoD
112
DMSO High Level Architecture Overview
113
DoD M&S Strategy: An Analogy to City Planning
114
How Did We Get Here?
115
Some Terminology
116
Some More Terminology
117
HLA Comprises Three Components: Rules, Runtime Infrastructure, Templates
118
A Federation Must Play by the Rules
119
Each Federate Must Play By the Rules
120
OMT Components
121
Object Class Structure Table (Template)
122
Object Interaction Table (Roughly Methods in CORBA)
123
Architecture Splits Functions Between Simulations and Runtime Infrastructure
124
New Java Frameworks for Advanced Web Services (I)
125
New Java Frameworks for Advanced Web Services (II)
126
Possible Java Frameworks for Computing
127
Proposed Java Computing Services Framework
128
Implementation of a Java Computing Framework
129
WebPersuasion -- Javabean Foilsets
130
Features of a JavaBean Foilset
131
Graphics in the New Tango white Board
132
Tango Collaboration System
133
TANGOsim Collaboration/ Simulation/ Training in Java
134
TANGO Collaboratory
135
TANGO Collaboration Model
136
Role of Collaboratory Systems
137
TANGO: Highlights
138
Tango Screen: Talking Heads and White Board
139
Tango Screen: Physics Applets -- Cross Product, Planets and Neural Network
140
TANGO: Highlights II
141
TANGO: Control Application
142
TANGO: application control
143
TANGO Applications
144
TANGO: Status
145
Collaboratory systems: Taxonomy I
146
Collaboratory systems: Taxonomy II
147
Event Broadcasting: con and pro
148
Typical Web Collaboration Architecture
149
The TANGOsim C2 Application
150
Command and Control Screen with Multimedia Message
151
A demo of animated objects controlled by simulation engine of Tango collaborative system - III
152
TANGO Structure of Multidisciplinary Applications
153
Minimal Web based Multidisciplinary Application
154
Comparison of Communication/Linkage Models
155
General Web Architecture
156
TANGOsim for Distributed Simulation and Computational Steering - I
157
TANGOsim for Distributed Simulation and Computational Steering - II
158
Architecture of JSU Distance Education
159
New Directions for Tango
160
Java as the Language for Computational Kernels!
161
Some Critical Features of Java as a Programming Language
162
Comparison of Java and Fortran 77/90
163
Java Links the Bottom and Top of Pyramid
164
Isn't the Web hardware and software too slow to be interesting for HPCC? -Java- I
165
Performance of Java is Dreadful!
166
LinPack Java Performance Updated to Sept 30 1996
167
LinPack Java Performance Updated to June 3 1997
168
What Limits Performance of Compiled Java?
169
Isn't the Web hardware and software too slow to be interesting for HPCC? -Java- III
170
Classes of Simulations and their High Performance Needs
171
Java and Parallelism?
172
"Pure" Java Model For Parallelism
173
Mechanisms for Data Parallelism in HPJava Full WebWisdom URL and this Foilset Search
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