An Investigation into Transport Protocols and Data Transport ...

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Bibliography 308 planning and telecommunications. E. Altman and L. Wynter, January-February 2003. [LS04a] [LS04b] D. J. Leith and R. Shorten. H-tcp protocol for high-speed long distance networks. In Protocols For Long Distance Networks, February 2004. D. J. Leith and R. N. Shorten. Tcp rtt unfairness in high-speed and long-distance networks. -, 2004. [LTC + 04] B. Lowekamp, . Tierney, L. Cottrell, R. Hughes-Jones, T. Kielmann, and T. Swany. A hierarchy of network performance characteristics for grid applications and services. http://www-didc.lbl.gov/NMWG/docs/draft-ggf-nmwghierarchy-04.pdf, May 2004. [LTWW94] W. Leland, M. Taqqu, W. Willinger, and D. Wilson. On the self-similar nature of ethernet traffic (extended version). In IEEE/ACM Transactions on Networking, volume 2, Feb 1994. [LWA98] [MB76] R. J. La, J. Walrand, and V. Anantharam. Issues in tcp vegas. http://www.path.berkeley.edu/ hyongla, July 1998. R. M. Metcalfe and D. R. Boggs. Ethernet: Distributed packet switching for local computer networks. In Communications of the ACM, 1976. [MD90] J. Mogul and S. Deering. Path mtu discovery. IETF RFC 1191, November 1990. [MDK + 00] G. Montenegro, S. Dawkins, M. Kojo, V. Magret, and N. Vaidya. Long thin networks. IETF RFC 2757, jan 2000.
Bibliography 309 [MHR03] [MM96] M. Mathis, J. Heffner, and R. Reddy. Web100: Extended tcp instrumentation for research, education and diagnosis. In ACM Computer Communication Review, volume 33, July 2003. M. Mathis and J. Mahdavi. Forward acknowledgment: Refining tcp congestion control. In SIGCOMM ’96, August 1996. [MMFR96] M. Mathis, J. Mahdavi, S. Floyd, and A. Romanow. Tcp selective acknowledgement options. IETF RFC 2018, October 1996. [MP99] [MR91] J. Mahdavi and V. Paxson. Ippm metrics for measuring connectivity. IETF RFC 2678, September 1999. K. McCloghrie and M. Rose. Management information base for network management of tcp/ip-based internets: Mib-ii. IETF RFC 1213, March 1991. [MSMO97] M. Mathis, J. Semke, J. Mahdavi, and T. Ott. The macroscopic behavior of the tcp congestion avoidance algorithm. In ACM SIGCOMM Computer Communication Review, volume 27, July 1997. [MVS01] [Nag84] [New05] D. Moore, G. Voelker, and S. Savage. Inferring internet denialof-service activity. In Proceedings of the 10th USENIX Security Symposium, 2001. J. Nagle. Congestion control in ip/tcp internetworks. IETF RFC 896, January 1984. H. Newman. Global lambdas and grid for particle physics in the lhc era, November 2005.
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An Investigation into Transport Pro
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Contents List of Figures . . . . .
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Contents 5 4.6 Summary . . . . . .
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Contents 7 8.2 Test Calibration . .
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Contents 9 10.3.5 Further Tests . .
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List of Figures 11 5.7 Effect on cw
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List of Figures 13 8.16 Unfairness
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List of Figures 15 8.32 Friendlines
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List of Figures 17 9.19 Dynamic swi
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List of Figures 19 D.1 Internet pat
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List of Tables 21 A.1 Hardware and
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Publications And Workshops Some of
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1.2. Research Scope 25 • Identifi
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1.4. Dissertation Outline 27 • Id
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Chapter 2 High Energy Particle Phys
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2.2. Analysis Methods 31 the data i
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2.3. Data Volumes and Regional Cent
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2.3. Data Volumes and Regional Cent
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2.4. Data Transfer Requirements 37
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2.5. Summary 39 data, the most impo
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3.1. Data Intercommunication 41 mov
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3.2. Network Monitoring 43 Whilst l
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3.2. Network Monitoring 45 Internet
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3.2. Network Monitoring 47 1 0.8 Bo
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Chapter 4 Transmission Control Prot
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4.1. Overview 51 Throughput Delay L
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4.2. Protocol Description 53 is dep
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4.2. Protocol Description 55 As a r
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4.3. Congestion Control 57 excessiv
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4.3. Congestion Control 59 probe fo
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4.4. Retransmission Timeout 61 tion
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4.5. TCP Variants 63 mechanisms are
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4.5. TCP Variants 65 connection ini
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4.5. TCP Variants 67 20 15 cwnd sst
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4.5. TCP Variants 69 no more acks t
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4.5. TCP Variants 71 [Hoe96]. In bo
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4.5. TCP Variants 73 TCP Timestamps
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4.6. Summary 75 traffic for a parti
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Chapter 5 TCP For High Performance
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5.1. TCP Hardware Requirements 79 G
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5.1. TCP Hardware Requirements 81 1
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5.1. TCP Hardware Requirements 83 C
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5.2. TCP Tuning & Performance Impro
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5.3. Network Aid in Congestion Dete
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5.3. Network Aid in Congestion Dete
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5.4. Analysis of AIMD Congestion Co
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5.5. Summary 109 5.5 Summary Even t
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6.1. Survey of New-TCP Algorithms 1
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6.2. Discussion and Deployment Cons
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6.3. Summary 133 6.3 Summary The re
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Chapter 7 Testing Framework for the
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7.1. Metrics 137 various New-TCP al
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7.1. Metrics 139 assuming equilibri
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7.2. Environment 141 of packets in
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7.2. Environment 143 T 0 B, T T 1 F
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Chapter 8 Systematic Tests of New-T
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8.1. Methodology 147 fed into the d
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8.1. Methodology 149 Various other
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8.2. Test Calibration 151 Goodput (
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8.2. Test Calibration 153 cwnd and
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8.2. Test Calibration 155 100 1 Agg
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8.2. Test Calibration 157 1000 FAST
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8.3. Results 159 10 100 Total Throu
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8.3. Results 161 14 12 HSTCP 1 α H
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8.3. Results 163 cwnd (packets) 120
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8.3. Results 165 Fraction Bytes Ret
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8.3. Results 167 1200 1000 HTCP 1 H
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8.3. Results 169 This is due to the
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8.3. Results 171 4000 3500 3000 HTC
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8.3. Results 173 800 700 600 Standa
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8.3. Results 175 1 1 Fairness Ratio
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8.3. Results 177 10 100 Total Throu
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8.3. Results 179 1000 Standard TCP
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8.3. Results 181 600 500 Standard T
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8.4. Discussion of Results 183 Asym
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8.4. Discussion of Results 185 New-
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8.4. Discussion of Results 187 Asym
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8.5. Summary 189 The importance of
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9.1. Transfer Tests Across Dedicate
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9.2. Preferential Flow Handling Usi
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9.3. Internet Transfers 229 can cau
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9.3. Internet Transfers 231 Stanfor
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9.3. Internet Transfers 233 10 1 St
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9.3. Internet Transfers 235 1000 90
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9.3. Internet Transfers 237 Fractio
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9.3. Internet Transfers 239 10000 c
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9.3. Internet Transfers 241 achieve
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9.4. Summary 243 performance of sin
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9.4. Summary 245 Nevertheless, a Di
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10.1. Summary 247 PCs. But at 1Gb/s
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10.2. New-TCP Suitability Study 249
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10.2. New-TCP Suitability Study 251
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10.3. Future Directions 253 low ove
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10.3. Future Directions 255 porates
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Page 261 and 262: A.1. Data Storage 261 with the choi
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Page 271 and 272: A.1. Data Storage 271 1600 1600 140
Page 273 and 274: A.2. Network Interface Cards 273 la
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Page 287 and 288: A.2. Network Interface Cards 287 ha
Page 289 and 290: B.2. Wide Area Network Tests 289 Da
Page 291 and 292: C.3. DataTAG 291 Cisco 7606 Cisco 7
Page 293 and 294: Appendix D Network Paths of Interne
Page 295 and 296: 295 ham02gva.datatag.org:192.91.239
Page 297 and 298: Bibliography 297 [All03] [AMA + 99]
Page 299 and 300: Bibliography 299 [BPSK96] H. Balakr
Page 301 and 302: Bibliography 301 [DC02] [ea02] [FF9
Page 303 and 304: Bibliography 303 [Flo03] [Flo04] S.
Page 305 and 306: Bibliography 305 [Hoe96] [IET] [Jac
Page 307: Bibliography 307 [KRB05] [Lah00] [L
Page 311 and 312: Bibliography 311 [Pos81a] J. Postel
Page 313 and 314: Bibliography 313 [tePM] IEPM Intern
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