NETWORK-CENTRIC

TECHNOLOGIES: A CLOSE

LOOK AT THE DISTANT AND

NOT SO DISTANT HORIZONS

By

Maj Gen Yashwant Deva, A VSM (Retd)

 

"The only thing harder than getting a new idea

into the military mind is getting an old one out.”.

B.H Liddell Hart

 

INTRODUCTION

 

The most signilicant contribution of the last millennium to the civilisation in its later half was the demise of the hierarchies and the beginning of the age of networks, bright and promising in perceptions, yet often bleak and demanding in prospects. Network-centric technologies in general and the Internet taxonomy in particular, now drive the society in all aspects of its devclopment, even daring the very mores that pivot the humanity. The e-prefixed buzzwords. e.g. e-business, e-gover­nance, e-services or ITES (Information Technology-enabled Services as they are commonly referred to) like e-banking, e-insurance and e-medicine underscore this revolution. "Access", "backbone" and "security" technologies are the marrows that lend the network architecture the attributes of bandwidth, safety and time responsive­ness - obvious acid tests of their merit.

The beginning of the new millennium has been highly turbulent both nationally and internationally. We have been hit by the economic slow down: the peril of lay-offs; near demise of dotcom; amoral and unhealthy competition; a growing menace of "S" abuses on the Internet like spying, spoofing, spamming, spinning, stalk­ing, sleazing etc.: possibility of e-learning and e-services going the e-business way; and to top it all, the Menace of scams and scandals. Then we were visited by it natural disaster in Gujarat and asymmetric attacks on the most powerful nation in the world, rem inding us of the frighteningly hideous fronumd font of the international terrorism to which we'in India have been perpetually hostage of, both pre 9/11 and post 9/11. Whereas terrorism has become network-centric and technology sentient, the civilised are fissure ridden, comatose to the dangers that threaten their very existence, and ill­ disposed to sharing technologies. "For nearly 200 years, the tools and tactics of how we fight have evolved with military technologies. Now, fundamental challges are affecting the very character of war. Who can make war is changing as a result of weapons proliferation and the fact that the tools of war illcreasingly are marketplace commodities. By extension, these affect the where, the when, and the how of war. "1

The burden of this paper is that the network-centric technologies and culture is panacea for all our ills and yet these pose the greatest threat to the human race, because the worldwide terror network too relies and thrives on thesl: very technologies and facilities on the one hand and has acquired capabilities to abuse, negate or interfere with the legitimate-use systems. on the other. Whether we arc going to be a step ahead or a step behind is the moot question.

 

NETWORK PHILOSOPHY: THE TECHOLOGICAL FACET

 

It would be pertinent to whack a few fencing home-thrusts, endorsing, even parrying the laws and hypotheses that govern the design and architecture of the net­works. A look at the Hobbes' Internet Timeline v5.32 would show how arduous and gruelling lias been the path taken by the Internet in the development of the backbone, access networks, packet switching, the protocols and the services that we now take for granted. One of the most signiticant contributions of this history is the gift of World Wide Web (WWW) from CERN in 1992, which allowed everyone to have 24­-hour presence on the net. Web is a blending of hypertext, user interface and distrib­uted data. Specially written tiles, which use Hypertext Mark Up Language (HTML) are pigeonholed on the net, which can be accessed by anyone using browsers. Internet 2 and the current rage about Mobile Internet with a basketful of emerging technolo­gies, headed for 3G (3rd Generatron) and beyond, are part of the process. "These are no incremental add-ons to technologies: they are no salad dressings. Each one has brought about a revolwion, a sea-change to our daily  life,” 3

A million-dollar question that often nags thc unsuspecting, is what prompted the US to adopt altruistic stance and gift away these technologies. It bestowed the TCP/IP to the world, free of cost with no strings attached. Bill Eager and Ann Pike call it simply unparalleled. It is aptly described as “the most counter intuitive, curious event.”4 A plausible reason for the US benevolence could well have been that they foresaw the vulnerabilities of the network to electronic attack, which could initiate from anywhere. Take for instance seeding of viruses, worms and Trojans in the system. Morris Worm, which burrowed through the network much against the initiator's intention in 1988 proved the point; it bared vulnerability affecting over 6,000 of the 60,000 hosts, i.e. one in ten.5

Let us not forget that growth does not come by merely buying computers, but from connecting them to each other, more so by spreading network culture. This truism is not widely understood or appreciated; more so by the military who have been hidebound in divorcing computers from communications. Sun Microsystems were the first to point out that it is not so much about th.: computer as it is about the computer in the networked condition that the real value and merits accrue." It is as true of business operations as warfare. This paradigm shift in the philosophy of computing led IBM to announce that it was moving to network-centric computing.7 The traditional PC is headed for archiving. It is anybody's guess as to what shape second generation access devices would take. It could be computing appliances, Web-enabled set-top boxes, Webphones, Internet-connected wireless communicators, or Java-based network computers – all of these or something else.

Network-centric computing is governed by Metcalfe's Law, which asserts that the "power" of a network is proportional to the square of the number of nodes in the network.8 The "power" or "payoff" of network-centric computing comes from information-intensive interactions between very large numbers of heterogeneous computational nodes in the network. One of the reasons why we succeeded in creating a highly responsive network of commun ications during Operation PAWAN was scrupulous adherence to this principle, both in numbers of nodes and imparting them multi-connectivity.

The term broadband has been somewhat obscurely defined to mean any service, which is "always on" and exceeds 100 Kbps. The latter is not even double the 56 k dialup speed: no wonder the term hardly purveys vastness or inspires contidence. We now talk of wide bandwidth and ultrahigh bandwidth. Further, "always on" is not much of a novelty with the arrival of cell-phones. Not long ago the mandarins of the Indian establ ishment made a brag that bandwidth was not a problem, but looking at the demand of bandwidth-consuming services and Gigabit networks, hopefully better understanding would have dawned. Seshagiri writes, "The peak folly was to thing that every ISP (Internet Service Provider) can become a bandwidth wholesaler and then next best folly was to open a shop for pure bandwidth r etailnlg, This effervescent cummodtly called ‘bandwidth’ was, directly or indirectly controlled by the Videsh Sanchar Nigam Limited (VSNL), at least so far. Holding on their monopoly and monopolist profits was a prime motivation for the VSNL and the retailing ISP had to compete with them for customers, the wholesaler being also a retailer. This is a telling example of a growth limiting, dis-economic feedback system. "9 What Seshagiri describes as a national experience is equitlly true of international arena, narrated under Backbone Technologies later in this article.

Governed by the speed of communications increasing at a much faster rate than the speed of computing, the network-centric communications are on the upswing. A comparison on a matrix of computing speed, channel capacity, packet size and delivery speed underscores the point that "time available for protocol processing has become much less and therefore protocols will have to be simple.”10   Recently an international research team has set a new Internet 2 Land Speed Record using the next generation Internet Protocol by transferring the equivalent of the entire contents of a CD-ROM over more than 9000 miles (14,800 kms) of network in less than 17 seconds.11 The transfer was accomplished at an average speed of 348.22 megabits per second, more than 6000 times faster than a typical computer modem.12

 

NETWORK PHILOSOPHY: THE SOCIOLOGICAL FACET

 

Subscribing to the thesis that the networks are more democratic, more liberal and a priori more open, accessible and responsive vision of the true netizens, be it in India or elsewhere, has always centred on their unequivocal adoption. In the prevailing smog and smoke that engulf the under-developed world and the societies in transition, struggling for a space under the sun, networks provide the solution. Networks have a profound impact beyond their physical borders, confines and boundaries. They can transform political, economic, social and cultural relationships and give them a wholesome integrated identity purveying a system's approach to resolving societal problems. They lend value to human interactivity and therefore it is as important to network individuals and organisations as it is to inter-web machines. In his book Trust: The Social Virtues and the Creation of Prosperity, 13 Francis Fukuyama emphasises the role of "social capital" and organic cohesion for success in "post-historical world." He describes the social capital as "reciprocity, moral obligation, duty towards community and trust."14 Technologies that marry up with social capital lend a greater chance of creation of prosperity and a priori economic and political survivability in the prevailing hostile environment.

Maintaining that in the new "social context, there are very serious and dangerous tensions growing: tensions that can only be resolved through conflict, "15 Garigue avers. "The greater battle will be between the different types of cyber-environments as they continually assimilate more and more of humanity into their network structure. Ultimately, the final battle will be, as usual between fundamentally different belief systems. The fight will be flesh and silicate against flesh and silicate.”16  His thesis is that because "totalitarian and dogmatic systems" will continue to exist. "for humanity to survive it has to learn to hack the belief , systems that are encased in the networks. "17

Undoubtedly, belief systems are Human constructs and they will always be morc humane and fallible. So are machines. These too are human constructs and any fault-lines that are designed in them will, of sure, sire Frankenstein. The choice between technology and anti-technology too is of our own making. Whatever be the times, societal mores or the state of the technology, the networks have sustained positive belief systems and have been a bulwark against tyrannical arbitrariness and impulsivity imposed by the hierarchies. Yet the networks have spawned their own incongruities and inconsistencies. How else can one explain the hawala network, the drug network, the underworld crime network and cyber-terrorism that nibble at the vitals of the network of the networks, the Internet?

 

NETWORK PHILOSOPHY: THE SECURITY FACET

 

It would be interesting to study the genesis of the Internet to appreciate the kind of global access or connectivity that we covet. It was way back in the Sixties that the US strategic think-tank, Rand Corporation did some serious mulling on the likely state of the US command and control setup in a nuclear scenario and how US authorities could communicate after the first nuclear strike. A dilemma that confronted them was that post-nuclear America would need a C3 (command, control and communications) network, linking city-to-city, state-to-state and base-to-base. A nuclear attack would render any conceivable network to tatters; no matter how me­ticulous were the planning for network protection to make it nuclear and EMP proof.  Baftled by the problem of control, the Rand Corporation discarded the concept of centralised authority over the network on the reasoning that such a network would be the tirst to be targetted and eliminated by enemy missile attack. "In a highly secret meeting, Rand came out with a novel and bold solution, perhaps a wicked one too. It suggested let there be no celltral authority, assume the network to be vulnerable at all times; design the network from the very beginning to operate while in tatters, and perhaps with tongue in cheek, let the friends and allies share the electronic vulnerability and also feel the pinch. Forty years hence, there is no central authority over the Internet the network is hare and exposed to its marrow, continues to be in tatters and its vulnerabilities, though of different kind a concern of the entire civilized world.”18

 Let us shed crass naivete. The Internet was an instrument of Cold War and still figures high in US security concerns. It was created to serve Uncle Sam's globalisation agenda, more for the info-dominance and less for any humane munificence. Its roots are in ARPANET. ARPA stands for Advanced Research Projects Agency, which is part of the US Department of Defense. One of the goals of ARPANET was research in distributed computer systems for military purposes. The emphasis is deliberately on military purposes, because that is how the Internet in its infancy bore a hierarchical structure.

The New World Information Order helps the US to play super cop ifnot in physical space, then certainly in cyberspace. It affords legitimacy to spy on others, both friends and foes, and that is precisely what the NSA and the Anglo-Saxon grouping of Project Echelon19 are instituted to do. They excel in sniffing packets, passwords, e-mail and keys and breaking codes and ciphers. The European Parliament has indicted them for commercial spying.20

The Echelon has now a match in AI Qaida. The latter has shown the World where the network chinks are, how footprints can be hidden, and how "redundancy in bits" can be exploited to send steganographically21 coded messages to their cadre. The Echelon now searches for poisonous needles in a haystack, possibly of pornographic files and frames.

Undoubtedly, the Internet has acquired a transcontinental personality; iron ically so has terrorism. If one searches for commonal ity amongst the terrorist attacks, it is the laptop and cellular that standout. In the attacks on the Parliament and the Red Fort, the terrorists left behind PCs, which amply proves the point. The analysis of the data stored in them would have yielded valuable information. The terrorists have become high Iy dependent on the Internet for spying, propaganda, money laundering, passage of information, interactivity and operation planning through ICQ (I seek you) and IRC (Internet Relay Chat). Mobile Internet, VOIP and Short Message Service (SMS) would provideincreascd flexibility. It stands to reason that it is through denial and decimation of "access" that effective countermeasures against terrorism can be instituted and shift from platform-centric to network-centric warfare so that terrorism can be defeated.

 

 

ACCESS TECHNOLOGIES

 

For India, the most pragmatic access solution is copper net broadband, which provides high speed, channelis.ed and packetised data communication services culling and com bining Digital Subscriber Line (DSL), Frame Relay and Asynchronous Transfer Mode (ATM) technologies and techniques. It has the right credentials of scalability and affordability to engineer and service high-speed. "last mile" connectivity to local, wide and metropolitan area networks (LAN, WAN and MAN). Last-mile problem is the most nagging and challenging one and it can be resolved to an extent by DSL converting the existing telephone lines into high speed data circuits of l28 Kbps to 2 Mbps symmetrically and up to 7 Mbps, or even beyond asymmetrically. "Where utilisation of existing copper cables is convenient and economical, the high bandwidth required for content-rich applications can be realised by a mass deployment of DSL without need for massive infrastructure replacement. The protocol of choice for business services is HDSL2, while Asymmetric DSL deliv­ers greater throughput to desktops. Where ISDN is functionally essential. IDSL (ISDN + DSL) can be deployed. To push the 24 gauge copper pairs to the limit, we need VDSL (Very high bit rate DSL). This uses the shortest possible length of copper wire and consequently the longest run of fibre possible.” 22

That the copper net could ride to the state-of-the-art, few can deny. It could provide flexible architecture, multiple configuration and seamless end-to-end service, hosting remote access loops for internet/intranet connectivity, legacy voice, PBX emulation, video conferencing, multimedia, Web, mail and other e-services. DSL in its myriad manifestations, e.g. ADSL TDSL, DSL lite, XDSL HDSL SDSL could support corporate networks, rural networks and garrison networks spanning fixed-location logistic and adm mistrative establ ishment. However, a word of caution for the last mentioned; there is a danger of a copper m indset permeating the military. In the thick of battle in Jaffna, a commander complainingly asked me, "Where is my PL (permanent line)?”.

Where the existing copper wires are old and of poor insulation, answer lies in taking Fibre To The Home (FTTH). In the long run this would be the best choice, as it would do away with metal completely. The country can gain world leadership in providing access if we can concentrate our R&D resources on one commercially viable FTTH design.23

Local Multipoint Distribution Services (LMDS) is the broadband wireless technology used to deliver voice, data, I nternet and video services in the 25 G Hz and higher spectrum. LMDS use cellular like network architecture, though services provided are fixed, not mobile. Frequencies and bandwidths are allotted by the national authorities to deliver broadband services in point-to-point and point-to-multipoint configurations. Architectural options are varied and the system design options are built around TDMA (Time Division Multiplex Access). FDMA (Frequency Division Multiplex Access and CDMA (Code Division Multiplex Acces~). "Wireless Access Protocol (WAP) and Wireless Access Network are fast maturing technologies and can be gainfully deployed. The Multi-channel, Multi-point Distribution Service (MMDS) lacks in-band return path and sufficient bandwidth to surpass cable channel capacity for offering Superior interactive data services. LMDS overcomes this by offering two-way, high bit rate wireless service and vastly increases bandwidth."24

Free Space Optics (FSO) is another technology of interest not only for metros but also for mountainous and high altitude areas (HAA) where interference-free, line-of-sight topography is available, which can serve the static in-depth positions.

. ~ ~,'

3G is already he're and mobile Internet access marketls blooming.'Japan and Korea are leading in hand-held devices for 3G. China has started working with 4G technology, the refrain being "Never mind 3G, look forward to 4G." China Mobile and China Unicom have joined hands and are catching up with 2.5G or General Packet Radio Service - Code Division Multiplex Access 1 X (CDMA 1 X) as part of the 863 programme.25 Russia has opted for CDMA2000 1 X in 450 Mhz.

The crucial basic services on the Internet are VOIP, interactive TV and video-conferencing. Unfortunately our track record is of getting bogged down with regulatory, trivial and discrete issues and giving short shrift to larger national interests. Whatever be the controversies that have plagued the Indian scene, the times and opportunity demand that the public and private sector operators network and cooperate with each other "on a sincere level-playing field"26 for providing these services to the citizens at the lowest feasible tariffs.

The Internet was started as a platform for data applications, which were not time critical. Now its use covers real time computer conferencing, audio broadcasting, transfer of images, video clips, video telecasting and the Internet telephony or the Voice Over the Internet Protocol (VOIP). The contours of Internet 2 are amply visible and there is much literature and resume of R&D effort on the Internet. The technology is galloping so fast that it is anybody's guess as to the shape it would ultimately take.

 

BACKBONE TECHNOLOGIES

 

When we talk of "access", "connectivity" or "last-mile" technology, if cannot possibly be an end by itself. It is the "backbone," the "trunk" or the "vertebrae" to which these outers or edges are connected in a meshed architecture that forms the kernel and bears the burden. There are thirteen major players or the Internet backbone providers in the world that use tele-communication networks and routing equipment to deliver data traffic to and from their customers. Internet backbone providers interconnect with one another in order to enable their custQmers to exchange traffic with the customers of other backbones, resulting in the universal connectivity that is the hallmark of to day's Internet. They are monopolists to the boot, claims of conformity to anti-trust laws and the so-called market forces notwithstanding. The legacy of international telecommunications cost-sharing models are not acceptable to these Internet backbone providers.27 A lesser entity, be it one amongst the emerging tigers, has little scope of entering the elite group unless they "handshake." The term handshake involves either "peering" or "transit." Peering entails exchange of traffic with one another at no cost, whereas transit is at a cost whereby one backbone pays" another backbone "for delivering its traffic.28 This arrangement speaks volumes about the ugly face of international capitalism. It is the monopolists who decide whether, how and where to interconnect in commercial negotiations among themselves.

The Internet backbone is over three media; satellites in the space, submarine cable under the sea and fibre buried in the ground. If one peruses the Atlas of the Cyberspaces,29  it would be an eye opener to see how richly endowed are the countries on either side of the Atlantic and the Pacific; how poorly we are served in South Asia and how strangulating would it be if the only submarine cable that touches the shore at Mumbai is cut off. Even the tracks and footprints of communication satellites somewhat evade us. We do not fall in the category of the Least Developed Countries (LDCs), and the ITU apparently is only concerned with the growing digital divide between the likes of us and the LDCs. To them, neither the count of humans matter nor the stark reality of where the developed world is headed for.30

There is no short cut to creating a backbone of our own, spanning the length and breadth of the country. Project Sankhya Vahini31 was an excellent project; unfortunately it got scuttled. The project was designed to meet the high bandwidth communication needs of commercial, manufacturing and financial sectors besides meeting the research, teaching and learning requirements of educational institutions. It was designed to be the test bed for developing and proving multigigabit technologies and creation of backbone for the national Internet.32 The National Information Infrastructure would have come up in phases. The design and creation of the National Backbone and setting up of Urban Link was to be coordinated jointly by IUNet India, the then omnipotent DOT and the key technology providers.33 This would have involved lighting of existing dark cables, laying new bundles of advanced fibres, enhancement of the capacity of existing fibres to large bandwidths, multiplexing and aggregation to free a few fibres exclusively for the backbone.34 It was estimated that the project would have built a network topology of approximately 16,000 kilometres with 8 to 10 nodes located at major cities and 25 high bandwidth Points of Presence (PsOP), extendable to 100.35

Pity this cutting-edge-technology project went awry, putting us back by a full decade. The philosophy holds; let someone take cudgels.

Dense Wavelength Division Multiplexing (DWDM) that would have hinged on Sunkhya Vahini, is a fibre-optic transmission technique that employs light wavelengths to transmit data parallel-by-bit or serial-by-character. Scalable DWDM systems in enabling service providers to accommodate consumer demand for ever-increasing amounts of bandwidth. DWDM is a crucial component of optical networ~s that allows the transmission of e-mail, video", multimedia, data, and voice-carried in IP, ATM and synchronous optical network/synchronous digital hier­archy (SONET/SDH) respectively, over the optical layer.16 The top rate of embed­ded fibre networks is limited to 2.4 Gbps. WOM could double the capacity by provid­ing two wavelengths that could he transmitted over a single optical fibre. Through DWDM, 8, 16 and even up to 96 channels are now available. Research OWOM systcms have crossed I Tbps. DWDM reduces the need for costly signal regenera­tion units for MAN, 10 Gbps DWDM arc now commercially available, which can host applications like high speed Internet access, corporate LAN interconnection, back-end server connection, inter and intra POP connections, real time streaming, tele-commuting applications and of course high speed data transport.37

 

THE AGENDA

 

From the above discussion, let us identify an agenda for ourselves. The agenda should embrace building participatory and interactive networks, creation of vibrant structures to thrust forward various facets of technology, give a wider academic reach to the officers and men of the I\rmed forces and bring technology savvy of the society to those who are wedded to nishkam service on a common platform.

The commitments and obligations of the Armed Forces have multiplied not for any external reason, but from self-realised duty. It is time to redeem our pledges and earnestly get down to pursuing relentlessly the socially relevant and technology sentient agenda that we on our own are expected to set for ourselves. When the going becomes rough and bristly, our resolves must get further fortified. We must continuingly and convincingly refurbish our ideas and renew our priorities to go with the emergencies and challenges. Evidence suggests that commercial and Pak-abetted access to information technologies may well give terrorists an edge. That would call for asymmetric ways to counter asymmetric threats.

An important item for national agenda is to create an information infrastruc­ture backbone of our own. China, which joined NFSNET two year later than us, has made great strides some of which merit mentioning. The Chinese have setup 'Three Golden Networks', viz., Public Commun ications Network. Economic Information Net­work, China Education and Research network (CERNET),38  while we are content with only one, i.e. Education and Research Network (ERNET).'" The total capacity of telecommunications switches in China makes theirs one of the largest telecom­munications networks in the world. A California-based computer networking firm, Bay Networks Inc. was awarded a contract for a multimillion-dollar joint venture with the Chinese government to build a countrywide intranet called China Wide Web. Five cities – Beijing, Hong Kong, Shanghai, Shenyang and Guangzhou – were initially connected; 50 more are in the process of being connected.40 If world can have WWW and China can boast of China Wide Web, then why can India not plan and engineer an India Wide Web?

Creating a synergy between market and battlefield, and taking the network­-centric technologies to the trench. is another vital issue that begs immediate attention. A useful suggestion infer alia many others, is to examine the feasibility of Blue Tooth networks to replace local lines in command bunkers.

The network-centric technologies have lent new sheen to business, education, social guidance, national security, services and convergence of technolo­gies. But there are detractions aplenty to match, even undo their blessings. Let us be pragmatic and take an unbiased view joining hands with both the developed and the developing economies. Let us not forget that the new dispensation calls for recogni­tion of the prevai ling ambience of competitiveness and changed perspective on eco­nomic growth.

As to the menace of network-centric and cyber crime. Web defacing, hate campaigns, infraction, cyber laundering and "S" abuses, the civilised have to get to­gether and form a convention to contain and counter them. Let the serious acts of war and breach of security be handled by the security and intelligence agencies. The so called ethical hacker, Waner Senu in teens, or corporate houses out to play 007, have no role to play and should not be so encouraged.

Setting up research in emerging technologies and vital areas wherein the Internet has created an indelible mark in the making ofe-society is vital. It can neither be left to the establishment nor the corporate world, whose priorities lie elsewhere. The Oxford University in the UK has modelled an Internet Institute the first of its kind, at a cost of $22 million for carrying out research and making policy recommendations about what effects the Internet has on society. RAND's contribution to throwing up fresh ideas is well known. We may take cue from them, and in pursuance of the agenda, set up similar centres and think tanks to conduct studies and debate on issues of concern.

Lastly, we must include in our agenda, an intimate earthy look at the distant horizons with the further seeding and maturing of networks and informatics based on bio, neural, genetic, quantum, micro and nano technologies as they impact on the generations ahead of computing, communications, artificial intelligence, virtual reality, and robotics. We may even have a neural network linked to the physical surfing Brahmond and "accessing" the Inaccessible.


CONCLUSION

 

George Landow suggests in Hypertext and Critical Theory, "we are currently undergoing a revolution in human thought. Simultaneously paradigm­-shifts in apparently diverse disciplines are converging, creating a new conceptual system based in multilinearity, nodes, links and networks rather than center, margin, hierarchy and linearity.41 That is precisely the import of this article.

Of the three network-centric technologies, access, backbone and security, it is the last mentioned that sits at the perch. It is a natural consequence of the warfare itself becoming network-centric, cyber-centric and info-centric. 9/l1 gave fresh impulsion to this paradigm. What was hitherto a hacker-phreaker(sic) playground, the cyberspace has become a macabre haunt of the terrorist in hosting and vending terrorism and anarchy. It has accentuated the "historical discontinuities"42 in the conduct of warfare. ''The Soviets called these discontinuities "military-technical revolutions."43 The US analysts preferred to call them RMA more "to capture the non-technical dimensions of the military organisations and operations"44 than to de-emphasise the technical.

The initiative of ARTRAC in hosting a seminar on "Emerging Technologies for Access Networks" is obviously designed to restore the balance with a bias to technologies. Coming as this event does closely following the Army War College (erstwhile College of Combat) going hi-tech with broadband connectivity and its teach ing IT enabled,45 it is all the more praiseworthy and encouraging. That technologies drive the national agenda and cannot be divorced from the human values and the soldiering, is a truism we will do well to imbibe as a doctrine.

 

 

 

END NOTES

 

1. Vice Admiral Arthur K Cebrowski and John J. Garstka, "Network-Centric Warfare: Its  Origin and Future," Us. Navallnstitllle - Proceedings.

2. See Robert Hobbes lakon, 'Hobbes' Internet Timelines v5,3'. at http://www.internet­yearwise_mes/

3. Yashwant Deva. "The Greens, the Fairways and the Roughs of the Internet," Internet: Challenges. Opportunities and Prospects. e-Monograph, IETE Publication at www.iete.info/ p.61.

4. Bill Eager and Ann Pike, Using the World Wide Web, (Indianapolis. 1995), p.l.

5. See Larry Boettger, 'The Morris Worm: How it Affected Computer Security and the Lessons Learnt by it," The SANS Reading Room (Internet), December 24,2000.

6 "Technology and the Electronic Company," IEEE Spectrum. February 1997.

7. Ira Sager, "The View from IBM," Business Week, 30 November 1995.

8. George Gilder, "Metcalfe's Law and Legacy," Forhes ASAP, 13 September 1993.

9. N Seshagiri. The Internet: Chellenges, Opporlunities and Prospects, n.3. p.20.

10. Presentation made by Maj Rajiv Singh on "Gigabit Networking" at the Zonal Seminar on "Converging Technologies" organised by Mhow Centre of IETE on 7-8 February 2001.

11. See://archives.internet2..edu/. The research groups are ARNES (Slovakia), RedlRIS (Spain)

and DANTE (Pan European).

12. Ibid. The speed achieved was 5154 terabit meters per second on October 9,2002 as part of Internet Protocol IPv6 deployment as compared to 1215 terabit meters per second by the same team on September 27,2002, using standard Transmission Control Protocol! Internet Protocol TCP/IP.

13. Francis Fukuyama, Trust: The Social Virtues und Creation of Prosperity, (Amazon.com).

'His earlier work The End olHi.l'tory und the Last Man ('1992) was an international best seller. 14. Ibid.

15. See Robert John Garigue, "Hacking Belief Systcms: An Agenda for thc Survival of Hu­manity in Cyber-Socicty," http://www.infowar.com/articles/00/cyborglcyborg3.htm

16. Ibid.

17. Ibid.

18. n. 3, p. 58-59.

19. .See Yashwant Deva, Secure or Perish, (Ocean Book (P) Ltd..2001 ), p.65-67.

20. Ibid.

21. "Is Osama using cyber cipher?" The Times of India quoting LATWP SVC, October 15.

200 I. Also see Yashwant Deva, ed. "Information Security," IETE Technical Review Special Issue, July-August 2002, wherein three articles on steganography and steganalysis appear. viz. "Investigating Steganographic Communications". "Steganography based Information Security" and "FIAT–Fax Image Analysis Tool for Steganography and Steganalysis."

22. n. 9, p. 26.

23. Ibid.

24. Ibid.

25. "3G Generation: the Wireless Next Wave" at http://www.3g-generation.com/

26. n. 9, p. 25.

27. Michael Kende, "The Digital Handshake: Connecting Internet Backbones" Office of Plans und Policy (OPP) Working Paper No 32. The Federal Communications Commission (FCC), September 26, 2000 at http://www.fcc.gov/

28. Ibid.

29. See "Atlas of Cyberspaces: Cables and Satellites: Mapping fibre optic networks, sub­marine cables und telecommunication satellites" at map://www.cyber.georaphy.org/

30. See graph "LDCs failing to catch up: Total teledensity (mobile + fixed)" of ITU World Telecommunication Report 2002: Reyealing Telecoms.

31. n.19, p.58-59.

32. See "Tusk Force on IT and SD, Base Ground Report BR-3" of 18 March 1999 at http://it-taskforce.nic.in/

33. Ibid.

34. Ibid.

35. Ibid.