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HomeSubmarine Cables › Asia Connect Cable-1 (ACC-1)

Asia Connect Cable-1 (ACC-1)

Planned

19,000 km · 10 Landing Points · 7 Countries · Ready for Service: 2028

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Specifications

Length19,000 km
StatusPlanned
Ready for Service2028
Landing Points10
Countries7

Owners

Inligo Networks

Landing Points (10)

Location Country Position
Alupang, Guam GU Guam 13.4900°, 144.7768°
Batam, Indonesia ID Indonesia 1.0668°, 104.0166°
Darwin, NT, Australia AU Australia -12.4675°, 130.8431°
Davao, Philippines PH Philippines 7.0800°, 125.6128°
Dili, Timor-Leste TL Timor-Leste -8.5707°, 125.5807°
Hermosa Beach, CA, United States US United States 33.8622°, -118.3995°
Jakarta, Indonesia ID Indonesia -6.1716°, 106.8279°
Makassar, Indonesia ID Indonesia -5.1522°, 119.4124°
Manado, Indonesia ID Indonesia 1.4908°, 124.8396°
Singapore, Singapore SG Singapore 1.2939°, 103.8531°

⚙ Load profile

+0.9% above night floor · typical for this hour
flat profile: latency barely moves through the day, headroom looks comfortable · usual peak 03:00 UTC · 3 corridors
100 0006121823 00:00 UTC · +0.7%01:00 UTC · +0.5%02:00 UTC · +1.0%03:00 UTC · +8.6%04:00 UTC · +1.3%05:00 UTC · +1.1%06:00 UTC · +1.1%07:00 UTC · +1.0%08:00 UTC · +0.7%09:00 UTC · +2.7%10:00 UTC · +2.2%12:00 UTC · +0.9%13:00 UTC · +1.2%15:00 UTC · +4.1%16:00 UTC · +0.9%17:00 UTC · +1.6%19:00 UTC · +2.2%20:00 UTC · +1.4%21:00 UTC · +2.1%22:00 UTC · +1.1%23:00 UTC · +1.9%
Indirect estimate from diurnal latency rise under load (queueing delay), normalized per corridor to its night floor. This is NOT operator utilization data.

📡 Live Performance

698
measurements
10
probes
136
days monitored
203.4
ms avg RTT
0
anomalies

Monitored from 2026-03-01 through 2026-07-16 - live ICMP round-trip time measurements via our monitoring probes. All values below are recomputed daily from raw probe data. ✓ No anomalies detected in the monitored period.

Measurement sources

Probe Location Samples Avg Min-Max Last seen
#1014473 own probe Minsk BY 166 220.4 ms 1.9-273.5 2026-07-13
#7062 own probe Cape Town ZA 164 264.0 ms 1.7-303.7 2026-07-13
#1015523 own probe Moscow RU 90 178.2 ms 0.5-333.7 2026-07-03
#1015563 own probe Saint Petersburg RU 76 185.4 ms 168.9-229.8 2026-07-13
#6410 own probe Sao Paulo BR 51 279.9 ms 246.3-492.2 2026-07-16
#6427 own probe Sydney AU 51 142.2 ms 140.0-153.4 2026-07-16
#6487 own probe Singapore SG 51 73.0 ms 48.6-215.7 2026-07-16
#6492 control probe 45 119.6 ms 118.7-119.9 2026-04-08
#1014589 own probe Almaty KZ 2 299.1 ms 298.4-299.8 2026-07-13
#1014597 own probe Tbilisi GE 2 355.6 ms 348.8-362.5 2026-07-13

About the Asia Connect Cable-1 (ACC-1) Cable System

Asia Connect Cable-1 (ACC-1): A Pan-Pacific Submarine Cable

The Asia Connect Cable-1 (ACC-1) is a submarine telecommunications cable spanning approximately 19,000 kilometers. Owned by Inligo Networks, it connects the United States to key locations in Asia and Oceania, including Indonesia, Australia, Singapore, and Timor-Leste. With landing points in Hermosa Beach (California) and across multiple Southeast Asian cities, this cable is part of a growing network of trans-Pacific systems designed to meet the increasing demand for international connectivity. Despite its listing as "in service" and a recorded ready-for-service (RFS) year of 2028 in GeoCables data, there are uncertainties surrounding its operational status and technical specifications. Publicly available sources do not disclose its design capacity, fiber pair count, supplier, or specific technology, leaving many details about the cable unverified.

Quick facts

NameAsia Connect Cable-1 (ACC-1)
Length19,000 km
Ready-for-Service Year2028 (GeoCables database)
OwnerInligo Networks
StatusListed as in service
Design CapacityNot disclosed
Fiber PairsNot disclosed
SupplierNot disclosed
TechnologyNot disclosed
Landing PointsAlupang (Guam), Batam (Indonesia), Darwin (Australia), Davao (Philippines), Dili (Timor-Leste), Hermosa Beach (United States), Jakarta (Indonesia), Makassar (Indonesia), Manado (Indonesia), Singapore (Singapore)

Route

The ACC-1 connects Hermosa Beach, California, with multiple landing points across Asia and Oceania. These include Alupang in Guam, Batam, Jakarta, Makassar, and Manado in Indonesia, as well as Darwin in Australia, Davao in the Philippines, Dili in Timor-Leste, and Singapore. This route spans the Pacific Ocean and strategically links key economic and technology hubs in Southeast Asia with the United States. The cable's landing points overlap with numerous other systems, such as the Bifrost cable at Alupang, Apricot and SEA-US at Davao, and Southern Cross NEXT at Hermosa Beach. This redundancy may provide enhanced resilience for regional connectivity.

Why it was built and what it carries

The ACC-1 was likely designed to address the growing demand for high-capacity international connectivity between the United States and Asia-Pacific regions. As economies in Southeast Asia continue to expand, the need for reliable data transmission for cloud services, content delivery, and enterprise applications has surged. The cable also connects smaller markets like Timor-Leste, which may benefit from improved access to global networks. Specific details about the cable's data-carrying capacity and technology are not publicly disclosed, leaving its role in the broader telecommunications ecosystem somewhat unclear.

History: what can be established

GeoCables data records the ACC-1 as ready for service in 2028, but it is listed as "in service" despite this future date. This discrepancy could arise from premature listing, delayed construction timelines, or errors in documentation. Industry sources do not provide alternative RFS dates, making it difficult to resolve the conflict.

Capacity and technology

The design capacity, fiber pair count, supplier, and specific technology used in ACC-1 are not disclosed in publicly available records. Without operator documentation, it is impossible to state these details definitively. Most modern submarine cables utilize dense wavelength-division multiplexing (DWDM) technology to achieve high data throughput, but attributing this to ACC-1 without confirmation would be speculative.

Latency: the physics

The theoretical one-way light propagation latency over ACC-1's 19,000 km fiber is approximately 93.1 milliseconds, with a round-trip time (RTT) floor of 186.3 milliseconds. Real-world latency measurements are higher due to factors such as terrestrial network delays, routing inefficiencies, and equipment processing times. Live measurements from remote probes show significant variability in RTT values. For example, the average RTT from Minsk to Hermosa Beach is 219.8 ms, while from Moscow to Hermosa Beach it averages 178.2 ms. However, minimum latency values recorded in these tests (e.g., 1.9 ms from Minsk to Hermosa Beach) are below the physical floor and are artifacts caused by rate-limited ICMP replies from intermediate routers. These artifacts should not be interpreted as actual cable performance.

Redundancy: what happens if it breaks

The ACC-1 is part of a dense network of submarine cables in the Asia-Pacific region, providing multiple redundancy options. For instance, Hermosa Beach hosts other trans-Pacific cables like JUPITER and Southern Cross NEXT, while Singapore is connected to numerous systems such as the Darwin-Jakarta-Singapore Cable (DJSC). In the event of a failure, traffic can be rerouted through these alternative systems. Repairing submarine cables typically involves deploying specialized cable ships equipped with remotely operated vehicles (ROVs) to locate, retrieve, and repair damaged sections. Given the cable's length and geographic spread, repair times could vary significantly based on the location and severity of the fault.

Bottom line

  • The Asia Connect Cable-1 (ACC-1) spans 19,000 km, connecting the United States with key locations in Asia and Oceania.
  • Owned by Inligo Networks, it is listed as "in service" with a recorded ready-for-service year of 2028, though discrepancies remain.
  • Technical specifications such as design capacity, fiber pairs, supplier, and technology are not publicly disclosed.
  • Theoretical latency is approximately 93.1 ms one-way, but real-world RTT measurements are higher due to network factors.
  • Redundancy is provided by overlapping systems in the region, ensuring resilience in case of failure.

📡 Health

Status✓ Normal
RTT395.22 ms / base 410.80 ms
Last checked2026-07-16 10:31

Monitored by our probe network. Open monitoring →

📊 RTT History

Route: #7062 → Hermosa Beach Measured: 2026-07-13 00:32
243.8 ms
Min Avg Max #
7 days 243.8 255.8 257.7 8
30 days 243.8 259.5 303.7 105
60 days 1.7 264.0 303.7 164

Health Timeline

Tue, Jul 14
View full event log →
🔗
Hop Anomaly
10ms → 109ms (10.95×)
01:30
Sun, Jul 12
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🔗
Hop Anomaly
4ms → 1661ms (381.73×)
16:30
🔗
Hop Anomaly
35ms → 3434ms (97.01×)
16:30
Fri, Jul 3
View full event log →
🔗
Hop Anomaly
11ms → 68ms (6.18×)
01:30
Wed, Jul 1
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🔗
Hop Anomaly
8ms → 29ms (3.69×)
19:30
🔗
Hop Anomaly
11ms → 67ms (6.31×)
19:30
🔗
Hop Anomaly
23ms → 101ms (4.38×)
06:30
Tue, Jun 30
View full event log →
🔗
Hop Anomaly
3ms → 55ms (15.71×)
05:00
Mon, Jun 29
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🔗
Hop Anomaly
14ms → 411ms (28.47×)
22:00
Sun, Jun 28
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🔗
Hop Anomaly
8ms → 32ms (4.08×)
10:30
Sat, Jun 27
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🔗
Hop Anomaly
16ms → 177ms (10.82×)
22:00
🔗
Hop Anomaly
10ms → 3355ms (320.62×)
06:30
Wed, Jun 24
View full event log →
🔗
Hop Anomaly
5ms → 41ms (9.10×)
21:00
Mon, Jun 22
View full event log →
🔗
Hop Anomaly
13ms → 99ms (7.53×)
19:30
Sat, Jun 20
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🔗
Hop Anomaly
7ms → 94ms (12.87×)
09:01
🔗
Hop Anomaly
4ms → 61ms (14.57×)
03:01
Wed, Jun 17
View full event log →
🔗
Hop Anomaly
4ms → 48ms (13.42×)
03:00
Tue, Jun 16
View full event log →
🔗
Hop Anomaly
3ms → 20ms (6.08×)
23:01
🔗
Hop Anomaly
4ms → 14ms (3.13×)
11:00
🔗
Hop Anomaly
40ms → 263ms (6.54×)
01:01
Mon, Jun 15
View full event log →
🔗
Hop Anomaly
120ms → 397ms (3.30×)
19:01
🔗
Hop Anomaly
16ms → 82ms (5.19×)
09:30
🔗
Hop Anomaly
15ms → 48ms (3.24×)
07:01
Sun, Jun 14
View full event log →
🔗
Hop Anomaly
3ms → 11ms (3.50×)
03:31
Sat, Jun 13
View full event log →
🔗
Hop Anomaly
17ms → 188ms (11.35×)
23:01
🔗
Hop Anomaly
7ms → 26ms (3.83×)
17:30
🔗
Hop Anomaly
14ms → 54ms (3.81×)
15:30
Thu, Jun 11
View full event log →
🔗
Hop Anomaly
9ms → 225ms (26.11×)
13:00
Sun, Jun 7
View full event log →
🔗
Hop Anomaly
5ms → 39ms (7.54×)
20:00
Fri, Jun 5
View full event log →
🔗
Hop Anomaly
6ms → 20ms (3.42×)
13:30

FAQ

When will the Asia Connect Cable-1 (ACC-1) be operational?
The Asia Connect Cable-1 (ACC-1) is set to be operational by 2028.
Who owns and operates the ACC-1 cable?
The ACC-1 cable is owned and operated by Inligo Networks.
What are the key landing points for the ACC-1 cable?
The ACC-1 cable lands in Darwin, NT (Australia), Alupang and Hermosa Beach (Guam), Batam and Jakarta (Indonesia), Makassar and Manado (Indonesia), Davao (Philippines), Singapore, and Dili (Timor-Leste).
How many fiber pairs does the ACC-1 cable have?
The exact number of fiber pairs for the ACC-1 cable is not specified at this time.
How does the ACC-1 compare to other submarine cables in the region?
Compared to existing cables, the ACC-1 will provide an additional route for high-capacity data transmission between Oceania, Southeast Asia, and the United States, potentially offering redundancy and improved network resilience.
Asia Connect Cable-1 (ACC-1)
  • Length19,000 km
  • StatusPlanned
  • Ready for Service2028

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