Submarine Cables
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Fiber optic cables are ultra-high speed cable systems consisting of multiple fiber pairs. With the increased demand of internet services worldwide, these cables utilize the very latest technologies to assure extremely high reliability, low latency, and long system life.
48 NORTH has been contracted to support a variety of submarine fiber optic cables, including major trans-Pacific, regional, and scientific fiber optic cable installations in the US (see below). We are also supporting the Quinault Indian Nation with the permitting of their new Cable Landing Station in Washington State. The 48 NORTH team have developed permit feasibility studies and identified and acquired all federal, state, and local environmental permits and reviews necessary for the marine surveys, installation, operation, and decommissioning of these cables. In addition to working closely with federal, state, and local regulators, we have engaged with key stakeholders, such as regional fishing groups (e.g., Oregon Fishermen’s Cable Committee) and local regulators. In addition to permitting these cable systems, we have also developed comprehensive Landing Point Studies across multiple geographic scopes, identifying and recommending submarine cable landing locations that are technically feasible, permittable, and environmentally viable. |
Featured Cable Systems
 Hawaiki Cable,
Source: https://www.hawaiki.co.nz/
Regional Scale Nodes
The Regional Scale Nodes (RSN), an underwater cabled observatory off the coast of Oregon and Washington, is part of a larger NSF funded Ocean Observatory Initiative (OOI) that also includes Coastal and Global Observatories and a Cyberinfrastructure. FASTER Cable System 48 NORTH supported NEC Submarine Networks Division (NEC Corporation) with the environmental permitting of the FASTER Cable project, a trans-Pacific submarine fiber optic telecommunications cable system operated by Google, linking the west coast of the US with Japan. New Cross Pacific Cable System The NCP Cable System is a 13,618 km trans-Pacific submarine cable extending from Asia to the US (Pacific City, OR). The NCP project was Microsoft's first investment in international submarine cable system as a consortium member and the landing party in the US. Hawaiki Cable System The Hawaiki Submarine Cable is a submarine fiber optic cable linking Australia, New Zealand, American Samoa, Hawaii, and the US West Coast. Jupiter Cable System The Jupiter Cable System is a planned 14,600 km submarine fiber optic cable extending from Asia to the US. The system connects Maruyama, Japan; Shima, Japan; Los Angeles, California, USA; and Daet, Camarines Norte, Philippines, with a branch to Pacific City in Oregon. SEALink Cable System The SEALink Cable System is a planned 214-mile submarine fiber optic cable from Prince of Wales Island to Juneau in southeast Alaska, with an overland crossing on Mitkof Island through the community of Petersburg. The project also involves terrestrial network build-outs in the communities of Coffman Cove and Kasaan, which currently lack broadband service. Bifrost Cable System The Bifrost Cable System is a planned trans-Pacific cable spanning over 9,400 miles to connect Singapore to Grover Beach, California, with branches to Indonesia, the Philippines, and Oregon. When completed, Bifrost will be the largest capacity high-speed transmission cable across the Pacific. SEALink South Cable System The SEALink South project will involve developing fiber optic networks to premises in the remote, rural communities of Craig, Klawock, and Hollis in Southeast Alaska, helping to enhance telecommunication resiliency and redundancy for residents throughout the Tongass National Forest region. Nome to Homer Express This cable system will connect several Western Alaska communities - starting in Nome to Emmonak, continuing along the Yukon-Kuskokwim Delta coast to Naknek, crossing terrestrially to Igiugig, across Iliamna Lake to Pile Bay and Williamsport, before ending in a subsea segment across Cook Inlet into Homer. The NTHE project aims to enhance network resiliency and expand broadband access in by closing the digital divide with a redundant fiber ring. |