
|
|
||||||||||||||||||||
Many of these data are from relatively recent sources. However, a few are based on data a few years old, which is a long time in the relatively dynamic telecoms field. The data, however, have gone through several rounds of review, by industry, governmental, and inter-governmental organizations. (All such data should be re-checked before important decisions are made based on their details, rather than their general description of the situation in the Pacific.)
Although undersea telecommunication cables first served the Pacific over a century ago, those were analogue telegraph, and later telephone voice, cables. Satellite communications, which quickly leapfrogged cable capabilities in the 1970s, revolutionized telecommunications in the Pacific.
Table A-1 summarizes the types of Earth stations2, and the satellites, used for international and domestic connectivity, as compiled from innumerable reports on the Internet.
Table A-1. Satellite Communications Infrastructure3
|
Economy |
|
American Samoa: Earth station (1 – International, 1 – domestic) - Intelsat (1 system) |
|
Australia: Earth Stations (10 Intelsat including 6 Pacific Ocean; 2 Inmarsat including 1 Pacific Ocean; 2 Globalstar, 5 “other”); Extensive domestic satcom system. - Intelsat (10 systems), Inmarsat (2), Globalstar (2), “other (5)” (CIA – 2005) |
|
Cook Islands: Standard B (10 – at Rarotonga and 9 other islands), Standard F3 (1 at Rarotonga), 3+ Mbps from Rarotonga, 64-256 Kbps with other islands Of 12 populated islands, 2 had no access to telecoms in 2001. USPNet 4.6-metre downlink. - Intelsat, New Skies NSS-5 (183E)satellite |
|
Fiji: Standard A (1 - Suva). USPNet 7.6-metre Hub uplink/downlink. - Inmarsat, Intelsat IS-701 (180E) satellite |
|
French Polynesia: - Intelsat (1) |
|
Guam: - Intelsat (1) |
|
Hawaii: n/a |
|
Kiribati: Standard A (1 Bairiki), Standard B (1 – Kiritimati); 1.5 Mbps IDR at each location. USPNet 4.6-metre downlink. - Intelsat IS-701 (180E) satellite |
|
Marshall Islands: Standard A (1 - Majuro); Standard F1 (1 - Ebeye) (or Standard F3, variously reported). 2+ Mbps digital connectivity at each Earth station. Communications to remote outer islands is by single side band radio, though some VSATs are in operation. USPNet downlink. - Intelsat, New Skies NSS-5 (183E) satellite |
|
Micronesia: Standard A (1 – Pohnpei for international use); Standard B (3 – Chuuk, Kosrae, Yap) and Standard F1 (Ulithi) for interstate voice and data. Several Mbps Internet at Pohnpei, about 1.6 Mbps at Chuuk, Kosrae and Yap, 64Kbps at Ulithi. - Intelsat (5) |
|
Nauru: Standard B (1) (2 Mbps digital capacity via satellite. 2 Mbps optical fibre connects the earth station to the switching centre. (2001)). USPNet 4.6-metre downlink. - Intelsat (1) |
|
New Caledonia: - Intelsat (1) |
|
New Zealand: Earth Stations (8) - Inmarsat (1), “other (8)” |
|
Niue: Standard B (1 - Alofi) (or Standard F2, variously reported); 64 Kbps frame relay. USPNet 4.6-metre downlink. - Intelsat IS-604 (174E) satellite; Inmarsat |
|
Norfolk Island: Standard B (1 - Philipi). 3+ Mbps bandwidth. - Asiasat-4 (122.2E) satellite |
|
Northern Mariana Is. - Intelsat (2) |
|
Palau: Standard B (or Standard A, reported variously - Koror (1); Standard F1 (1-Koror, for Internet service). Several Mbps bandwidth. - Intelsat IS-605 (174E) satellite (Standard A/B?); Telstar-18 (138E) satellite (Standard F1) |
|
Papua New Guinea: Standard A (Port Moresby); 7 metre Optus antennas (2 – Port Moresby, Lae); 18 metre domsat hub in Port Moresby, VSATs being installed nationwide. - Intelsat (1), Aussat3 (2), Inmarsat, Asiasat, Palapa |
|
Pitcairn Island: Earth Station - Inmarsat (1) |
|
Samoa: Standard A (1 - Apia); Standard F1 (1 – Apia for Internet traffic); Several Mbps bandwidth. USPNet 6-metre Mini-Hub uplink/downlink. – Also, there is a 8 MBps terrestrial microwave link to American Samoa. - Intelsat IS-701 (190-E) satellite (Standard A); New Skies NSS-5 (183E) satellite (Standard F1) |
|
Solomon Islands: Standard B (Honiara – for international connectivity); Standard F3 domsat hub (Honiara); Standard F2 (2 – Gizo, Auki); Standard F1 (3 – Taro, Munda, Auki). USPNet 4.6-metre downlink. Several Mbps bandwidth. - Intelsat IS-701 (180E) satellite (standard A); New Skies NSS-5 (183E) satellite (1 Standard F3, 1 Standard F1, 2 – Standard F2 stations); Panamsat PAS-8 (166E) satellite (1 – Standard F1) and PAS-2 (169E) satellite (1 – Standard F1). |
|
Timor Leste: n/a |
|
Tokelau: Standard F1 (3 – Fakaofo, Nukunonu, Atafa); telephone and 512 Kbps duplex digital Internet (2003). USPNet4.6-metre downlink. - Intelsat (3?) |
|
Tonga: Standard A (1 – Tongatapu, reported as Standard B in 2006); Domsat network – 3 Intelsat IDR, 2 smaller centres using Intelsat. Several Mbps bandwidth. USPNet downlink. - Intelsat IS-701 (174E) satellite (standard A (B?) station) |
|
Tuvalu: Standard F3 (1 – hub in Funafuti with 64 kbps IDR), Standard F1 (8 – other islands for domestic traffic). 768 Kbps bandwidth at Funafuti, 64 Kbps elsewhere. USPNet downlink. - Inmarsat, New Skies NSS-5 satellite |
|
Vanuatu: Standard A (1 – Port Vila with IDR). Standard F2 (1 – Port Villa for Internet traffic). Several Mbps bandwidth. USPNet 4.6-metre Mini-Hub uplink/downlink. - New Skies NSS-5 (183E) satellite (Standard A station); Intelsat IS-701 (174E) satellite (standard F2 station) |
Coverage of Pacific island States is essentially complete for current C-band communication satellites. C-band is the traditional source of essentially full geographic coverage, very highly reliable, but relatively low-bandwidth and expensive, telecommunications. Ku band, which is subject to occasional interruptions in heavy rain, permits greater bandwidths and lower costs (of bandwidth and terminal costs). However, coverage is not quite so complete as for C-band. Except for the westernmost parts of the Pacific, which may be served by many satellites mostly serving Asia or Australia, major coverage is offered by Intelsat, Inmarsat, Asiasat, New Skies, and SES Americom.
Intelsat’s global constellation is mapped in Figure A-14. The footprints of its five central Pacific satellites are mapped in Figure A-2.

Figure A-1. Intelsat map of its operating satellite and fibre network

A. Intelsat over 150 East Longitude
C-band beam in white; Ku beam in yellow

B. Intelsat over 166 East Longitude
C band beam in purple

C. Intelsat over 169 East Longitude
C-band beam in purple

D. Intelsat over 174 East Longitude
C-band beam in white; Ku in yellow

E. Intelsat over 180 East Longitude
C-band beam in white; Ku beam in yellow

F. Inmarsat over 178 East Longitude
Fringe coverage in orange

G. Asiasat 4 C- and Ku-band coverage

H. Asiasat 3S C- and Ku-band coverage

I. Asiasat 2 C- and Ku-band coverage

J. SES Americom AMC-23 coverage now named Sat-Ge GE-23

K. New Skies NSS-5 C- and Ku-band coverage
Figure A-2. Coverage Maps for Pacific Ocean Satellites
Intelsat has been a major force in international satellite connectivity in the Pacific. However, recent restructurings in the communications industry have included the privatization if Intelsat, which may make the company more amenable to partner with hybrid, rather than satellite-only solutions.
In many States, separate satellites, Earth stations/terminals, or other infrastructure may be used for international and domestic connectivity. Full details are often unavailable.
Table A-2 provides an historical summary of cables serving the Pacific, (given in Gigabits per second).
Some data are available on the use and capacities of international submarine cables, and on international satellite usage. A summary of such data is presented for the years 2004 (the latest year available as this report is written), 2000 and 1996 in Table A-3. Compiled annually by the USA Federal Communications Commission and cited in the references, these reports only summarize data reported to the FCC by companies required to do so by its regulations. Thus, domestic traffic within countries other than the USA, and traffic not involving the USA, is unlikely to be reported. It is also noted in the reports that cable capacity is likely to be understated in the reports5. In addition, review of the tabulations suggests that data may be incompletely reported, received, or compiled for any given year – especially in the then-current year. Nevertheless, as much international traffic involves the use in origin, transit, or destination, and the data reporting methodology is relatively stable, the data can be of some use.
Table A-4 presents trans-Pacific cable capacities annually since 1988. This coincides with the introduction of first-generation fibre-optical cables in the region. Using the reporting methodology of the FCC, the units are in 64 Kilobits/second equivalencies, using different units than the more common units of Table A-2. Table A-4 also provides trans-Atlantic cable capacities over the same period. Table A-5 shows growth in telecommunications traffic since 1996 for the Pacific and Eastern Caribbean, for the service of the Eastern Caribbean Telecommunications Authority (as discussed in Appendix B).
Note that capacities grew relatively steadily between 1988 and about 1998-1999, when second-generation fibre-optic cable began to serve the Atlantic and Pacific Ocean areas. Such cables generally have one thousand times the capacities of first-generation cable systems, and are upgradeable in-place after installation.
After such a system’s proposed life span of 15 years, hoped-for benefits may be enough to justify laying spurs from future cable deployments between Australia, New Zealand, North America and Asia.
A partnership between a postulated PACTEL, the telecommunications industry, and developmental partners should be able to find the funds to capitalize such a project, if Pacific island States complete necessary policy steps to lay a framework for sustainable and successful outcomes from such cabling. ECTEL, the SAT3/WASC/SAFE cable developers, Telekom PNG, and the IRIS Cable Corporation (all described below) should have good advice on how to pursue such a project.
Table A-2. Trans-Pacific Communications Cables
This table compiles salient information about trans-Pacific telecommunications cables. The listing omits cables linking the Korean Peninsula, Japan, Okinawa, Taiwan POC, the Philippines, Indonesia, Malaysia, Brunei, and mainland Asia with themselves or Australia, the Indian Ocean, Africa or Europe. Major sources for this compilation include the International Cable Protection Committee6, the Atlantic Cable Site7, and Wikipedia8, but other sources have been used, such as press announcements about cables not yet in use.
Table A-2. Trans-Pacific Communications Cables
|
Name |
Short Name |
In-Service Year |
Retired Year |
Use |
Capacity Gb/second |
Length (km) |
Routing / Cost |
|
Asia-America Gateway |
AAG |
2008 |
Future |
1280 |
20000 |
Singapore, Malaysia, Thailand, Brunei, Vietnam, Hong Kong, Philippines, Guam, HI, CA |
|
|
Trans-Pacific Express |
TPE |
2008 |
Future |
960 |
n/a |
RoK, China, Taiwan POC, CA |
|
|
Guam-Micronesia-Marshall(?) |
GMM? |
2007? |
Under Construction |
n/a |
2175? |
Guam, Micronesia (Pohnpei), Marshall Is. (Kwajalein, Majuro) / ($67.4 million?) |
|
|
Australia-Papua New Guinea 2 |
APNG-2 |
2006 |
In use |
0.56 |
1800 |
Aust, PNG / $11 million (note – re-deployed PacRimWest cable) |
|
|
VSNL Pacific |
VSNL-Transpac |
2003 |
In use |
5120 |
24192 |
Japan, Guam, HI, OR, CA |
|
|
Japan – US Cable |
Japan-US |
2001 |
In use |
640 |
21000 |
Japan, HI, CA / $1000 million |
|
|
Southern Cross Cable Network |
SouthernCross |
2001 |
In use |
480 |
30500 |
Aust, NZ, CA, OR, HI, Fiji / $800 million |
|
|
Australia – Japan Cable |
AJC |
2000 |
In use |
640 |
12700 |
Aust, Guam, Japan / $350 million (Australia-Guam cost) |
|
|
Pacific Crossing 1 |
PC-1 |
2000 |
In use |
640 |
21000 |
CA, WA, Japan / $1200 million |
|
|
China – US Cable Network |
CUCN |
2000 |
In use |
80 |
30000 |
CA, OR, Guam, Okinawa, Japan, RoK, Taiwan POC, China / $1100 million |
|
|
Guam-Philippines |
G-P |
1999 |
In use |
20 |
3600 |
Guam, Philippines |
|
|
MTC Mariana-Guam Cable |
MTC |
1997 |
In use |
3732 |
240 |
Guam, Marianias (Rota, Tinian, Saipan) |
|
|
Palau Inter-Island System |
PII |
1996 |
In use |
5? |
200? |
Many nodes in Palau – domestic (6 fibres) |
|
|
Trans-Pacific Cable #5 |
TPC-5 |
1996 |
In use |
10 |
24593 |
OR, CA, HI, Guam, Japan / $1348 million |
|
|
Pacific Rim West Cable |
PacRimWest |
1995 |
2006 |
Reuse? |
0.56 |
7062 |
Aust, Guam / $282 million |
|
Pacific Rim East Cable |
PacRimEast |
1995 |
Reuse? |
0.56 |
7855 |
HI, NZ / $280 million |
|
|
Tasman 2 |
Tasman 2 |
1995 |
In use |
1 |
2195 |
Aust. NZ |
|
|
Micronesian Interisland System |
MIC |
1993 |
In use |
0.622 |
240 |
Guam, Marianias (Rota, Tinian, Saipan) |
|
|
Trans-Pacific Cable #4 |
TPC-4 |
1992 |
2004 |
Reuse? |
1.68 |
9843 |
CA, BC, Japan / $408 million |
|
Marshall Inter-Island |
Marshall Inter-Island |
1992 |
In use |
14.4 |
232 |
Kwajalein, Marshall Islands |
|
|
North Pacific Cable |
NPC |
1991 |
2004 |
Reuse? |
1.26 |
9531 |
AK, OR, Japan |
|
Guam-Philippines-Taiwan |
GPT |
1990 |
2003 |
Reuse? |
0.28 |
3749 |
Guam, Taiwan POC, Philippines |
|
Trans-Pacific Cable #3 |
TPC-3 |
1989 |
2003 |
Reuse? |
0.28 |
9161 |
HI, Guam, Japan / $601 million |
|
Australia-New Zealand-Canada |
ANZCAN |
1984 |
2002 |
Retired |
Analogue |
19323 |
BC, HI, Fiji, Norfolk Is., Aust, NZ (some parts out-of-service) |
|
ANZCAN “B” Fiji-Norfolk Island |
ANZCAN-B |
1983 |
2001 |
Retired |
Analogue |
1845 |
Fiji, Norfolk Island |
|
Japan Sea Cable |
JASC |
1976 |
1996 |
Science |
Analogue |
884 |
|
|
Trans-Pacific Cable #2 |
TPC-2 |
1975 |
1994 |
Science |
Analogue |
9038 |
Guam, Okinawa, HI |
|
Taiwan – Guam |
TAIGU |
1975 |
1995 |
Retired |
Analogue |
Taiwan POC, Guam |
|
|
Hawaii – Johnston Island |
Wet Wash C |
1975 |
In use |
Analogue |
1424 |
HI, Johnston Is. |
|
|
SEACOM |
SEACOM |
1966 |
1986 |
Retired |
Analogue |
Aust, PNG, Guam, Hong Kong, Malaysia, Singapore |
|
|
Trans-Pacific Cable #1 |
TPC-1 |
1964 |
1990 |
Science |
Analogue |
12501 |
Hi, Midway Is., Wake Is., Guam, Philippines, Japan |
|
Commonwealth Pacific Cable |
COMPAC |
1963 |
1984 |
Science |
Analogue |
15248 |
BC, HI, Fiji, NZ, Aust |
|
Australia-Papua New Guinea |
A-PNG |
1963 |
2006 |
Retired |
Analogue |
897 |
Aust, PNG |
|
Norfolk Island – Fiji |
1926 |
1964 |
Retired |
Telegraph |
Norfolk Is., Fiji, BC |
||
|
Auckland – Sydney |
1923 |
1964 |
Retired |
Telegraph |
Aust., NZ |
||
|
New Zealand – Fiji |
1923 |
1964 |
Retired |
Telegraph |
NZ, Fiji |
||
|
Auckland – Sydney |
1912 |
1964 |
Retired |
Telegraph |
Aust., NZ |
||
|
Norfolk Island – Fiji |
1902 |
1964 |
Retired |
Telegraph |
Norfolk Is., Fiji, BC |
||
|
Norfolk Island – Southport |
1902 |
1964 |
Retired |
Telegraph |
Aust., NZ, Norfolk Island |
||
|
Bundaberg – New Caledonia |
1893 |
1898 |
Retired |
Telegraph |
Aust., New Caledonia |
||
|
La Perouse – Nelson |
1890 |
1956 |
Retired |
Telegraph |
Aust., NZ |
||
|
La Perouse – Wakapauka |
1876 |
1932 |
Retired |
Telegraph |
Aust., NZ |
Table A-3. Pacific Cable and Satellite Circuit Activity Reported to the USA Federal Communications Commission
|
Economy |
2004 |
2000 |
1996 |
||||||||
|
Combined |
SatCom |
Cable |
Combined |
SatCom |
Cable |
Combined |
Satcom |
Cable |
|||
|
American Samoa |
418 |
418 |
0 |
187 |
187 |
0 |
82 |
82 |
0 |
||
|
Australia* |
124505 |
4277 |
120228 |
55787 |
7336 |
48451 |
4707 |
291 |
4416 |
||
|
Cook Islands |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
||
|
Fiji |
311 |
14 |
297 |
131 |
85 |
46 |
46 |
26 |
20 |
||
|
French Polynesia |
42 |
42 |
0 |
57 |
57 |
0 |
35 |
35 |
0 |
||
|
Guam* |
2548 |
655 |
1873 |
1970 |
6 |
1964 |
627 |
94 |
533 |
||
|
Hawaii |
2740 |
60 |
2680 |
1022 |
24 |
998 |
162 |
29 |
133 |
||
|
Kiribati |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
||
|
Marshall Islands |
883 |
883 |
0 |
163 |
156 |
7 |
70 |
68 |
2 |
||
|
Micronesia |
89 |
89 |
0 |
70 |
70 |
0 |
65 |
65 |
0 |
||
|
Nauru |
0 |
0 |
0 |
8 |
8 |
0 |
8 |
8 |
0 |
||
|
New Caledonia |
8 |
8 |
0 |
8 |
8 |
0 |
4 |
4 |
0 |
||
|
New Zealand* |
6901 |
453 |
6448 |
7063 |
2300 |
4783 |
883 |
119 |
764 |
||
|
Niue |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
||
|
Northern Mariana Is. |
547 |
227 |
320 |
501 |
138 |
363 |
337 |
337 |
0 |
||
|
Palau |
109 |
109 |
0 |
37 |
37 |
0 |
28 |
28 |
0 |
||
|
Papua New Guinea* |
38 |
8 |
30 |
23 |
8 |
15 |
18 |
10 |
8 |
||
|
Samoa |
8 |
8 |
0 |
16 |
16 |
0 |
13 |
13 |
0 |
||
|
Solomon Islands |
0 |
0 |
0 |
30 |
30 |
0 |
0 |
0 |
0 |
||
|
Timor Leste |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
||
|
Tokelau |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
||
|
Tonga |
31 |
31 |
0 |
30 |
30 |
0 |
30 |
30 |
0 |
||
|
Tuvalu |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
||
|
Vanuatu |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
0 |
||
|
|
|
||||||||||
|
Total Pacific |
139158 |
7282 |
131876 |
67103 |
10496 |
56627 |
7115 |
1239 |
5876 |
||
|
Pacific ex. AU, NZ, HI |
5012 |
1837 |
2520 |
3231 |
836 |
2395 |
1363 |
800 |
563 |
||
Note: Units are 64 Kilobit-per-second equivalents, the minimum reportable amount according to the FCC methodology. See text for an explanation of the reporting and results.
Some figures for * marked States were not reported for 2004. Values for recent years (2002 & 2003) are presented.
Table A-4. Trans-Pacific and Trans-Atlantic Cable Capacities, 1988-2008
|
1988 |
1989 |
1990 |
1991 |
1992 |
1993 |
1994 |
1995 |
1996 |
1997 |
1998 |
|
|
Trans-Pacific |
0 |
8 |
8 |
25 |
40 |
72 |
62 |
70 |
191 |
191 |
312 |
|
T-P Growth % |
0 |
213 |
60 |
55 |
0 |
13 |
172 |
0 |
63 |
||
|
Trans-Atlantic |
8 |
25 |
25 |
62 |
85 |
161 |
251 |
312 |
372 |
796 |
2005 |
|
T-A Growth % |
213 |
0 |
0 |
148 |
37 |
89 |
56 |
32 |
24 |
136 |
|
1999 |
2000 |
2001 |
2002 |
2003 |
2004 |
2005 |
2006 est. |
2007 est. |
2008 est. |
|
|
Trans-Pacific |
1400 |
2610 |
5271 |
6118 |
12763 |
16596 |
16596 |
16596 |
16603 |
30119 |
|
T-P Growth % |
349 |
86 |
102 |
134 |
109 |
30 |
0 |
0? |
0? |
81? |
|
Trans-Atlantic |
2005 |
6602 |
21843 |
21835 |
27580 |
27200 |
27200 |
27200 |
? |
? |
|
T-A Growth % |
165 |
236 |
333 |
0 |
26 |
-1 |
0 |
0 |
? |
? |
Figure A-5 plots these data

Figure A-5. Trans-Pacific and Trans-Atlantic Cable Capacities, 1988-2008
Table B2 lists historic cable systems serving the Pacific Ocean, including some announced systems planned for near-future deployment. The list is based on several sources9.
Table A-5. Growth in overall telecommunications traffic (excluding broadcasting) In the Pacific and the Eastern Caribbean
|
Grouping |
2004 Combined |
2004 SatCom |
2004 Cable |
2000 Combined |
2000 SatCom |
2000 Cable |
1996 Combined |
1996 SatCom |
1996 Cable |
|
Pacific |
139158 |
1915 |
131876 |
67103 |
10496 |
56627 |
7115 |
1239 |
5876 |
|
Pacific (ex. Au,NZ,HI) |
5012 |
2492 |
2520 |
3231 |
836 |
2395 |
1363 |
800 |
563 |
|
ECaribbean |
2582 |
224 |
2463 |
1966 |
265 |
1701 |
1174 |
201 |
972 |
|
ECTEL |
1181 |
28 |
1153 |
722 |
44 |
678 |
287 |
30 |
256 |
Note: “Pacific” denotes all Pacific areas noted in Table B2, as reported by FCC documentation noted in the text. “Pacific (ex. AU, NZ, HI)” denotes all Pacific areas noted in Table B2, except Australia, New Zealand, and Hawaii. ECaribbean denotes Anguilla, Antigua & Barbuda, Barbados, the British Virgin Islands, Dominica, Grenada, Montserrat, St. Kitts and Nevis, St. Lucka, St. Vincent and the Grenadines, the Turks and Caicos Islands. ECTEL denotes Eastern Caribbean Telecommunications Authority area of Dominica, Grenada, St. Kitts and Nevis, St. Lucia, and St. Vincent and the Grenadines.
Note that (1) Pacific connectivity levels are higher, and growing more rapidly than in the Eastern Caribbean as a whole, and that (2) satellite communication plays a larger role in the Pacific than in the Caribbean. Growth in telecommunications traffic reported to the FCC grew by:
1895% in the Pacific (due to the dominance of fibre-optic cabling since its introduction to the Pacific in the 1990s,
311% in the Eastern Caribbean Telecommunications Authority service area – coincident with the efforts to organize ECTEL, deregulate and facilitate growth in telecommunications in the ECTEL service area,
267% in the Pacific islands outside Australia, New Zealand, and Hawaii, mostly due to growth in a few States. Many States grew almost negligibly during the period of rapid cable deployment – still remaining dependent on satellite communications capacities which apparently did not grow in those countries, despite the global trend toward greater capacity Ku band satellite coverage.

Figure A-6. Plot of the Data of Table A-5: Growth in overall telecommunications traffic (excluding broadcasting) In the Pacific and the Eastern Caribbean
1 Edited by David A. Hastings, using data from the cited sources.
2 Types of Earth stations are summarized at Wikipedia: Satellite Earth station.
3
Sources: ITU:
Current status of telecommunications development in Pacific Islands countries(1998);
Pacific Island Telecommunication Association (PITA)
Pacific Report (2001) ;
CIA World Factbook (2006), updated with ITU documentation
for project PITA_SAT & EM_06-08, Regional strategies for
contingency planning in satellite communication and development of
platforms for emergency communications (2006)
5 Three reasons are given in the FCC reports for the anticipated under-reporting: (1) some non-USA carriers hold significant amounts of international cable capacity connecting to the USA, and are not required to report capacity unless they use such capacity to provide international service to/from/through the USA. (2) New cable systems may have under-reported capacity, particularly in the initial year of service of a cable. This is because the actually installed capacity may be upgraded between the initial filing of information and subsequent updates to such reporting. For example, the Australia-Japan cable was originally reported as having a planned capacity of 80 Gigabits/second, but has been upgraded to 640Gbps capacity. (3) An increasing number of non-common carrier cables are being built, with much of the capacity on those private cables being sold to end-users such as Internet Service Providers, non-USA carriers or ISPs. In some such circumstances, neither cable owners nor private cable users are required to report such capacities under current FCC regulations. (Source: FCC, 2001. 2000 Section 43.82 Circuit Status Data. Washington, DC. USA, Federal Communications Commission; p. 4.)
6 International Cable Protection Committee (ISCPC)
7 History of the Atlantic Cable & Undersea Communications from the first submarine cable of 1850 to the worldwide fiber optic network - Cable Timeline: 1850-2008
8 Wikipedia: List of international submarine communications cables
9 ISCPC Cable Database, Atlantic Cable Timeline: 1850-2008 and websites of cable service firms and operators, plus the aforementioned FCC reports.