THE NEWS

According to Offshore Engineer, Scottish floating wind technology developer Encomara has received Product Design Assessment (PDA) approval from the American Bureau of Shipping (ABS) for its Squid installation technology. The PDA is a formal classification society endorsement confirming that the design meets applicable engineering and safety standards, and represents a meaningful step in the commercialization pathway for the system.

The Squid is described as a floating wind installation technology, though the source material does not detail its specific mechanical configuration or the vessel interface it is designed to work with. The ABS approval follows the product design assessment process, which evaluates engineering documentation and design intent prior to any physical deployment or full project certification.

Encomara, based in Scotland, is positioned within the emerging segment of developers focused on the installation and handling challenges specific to floating offshore wind — a discipline that differs substantially from the established fixed-bottom wind installation market.

WHY IT MATTERS

The PDA approval from ABS is not a commercial contract, a deployment announcement, or a proof-of-concept at sea. It is, however, a credible third-party confirmation that the engineering basis of the Squid design is sound enough to proceed toward the next stages of qualification. In an industry where classification society endorsement is often a prerequisite for project financing and operator engagement, this step carries weight beyond its technical scope.

For the broader floating wind installation sector, the significance lies in what the approval signals about where the engineering bottleneck currently sits. Fixed-bottom offshore wind has largely resolved its installation methodology — monopile and jacket foundations are handled by a mature fleet of specialized vessels with well-understood lift and positioning procedures. Floating wind does not yet have an equivalent settled practice. The turbine support structures — semi-submersibles, spars, tension-leg platforms — introduce complexity in wet tow, upending, mooring hookup, and final positioning that conventional heavy-lift vessels were not designed to address efficiently. Technologies like the Squid, whatever their specific mechanism, are attempts to close that gap.

From a Brazilian perspective, the direct relevance of this particular approval is limited in the near term. Brazil's floating wind sector remains in early-stage development, with regulatory frameworks, environmental licensing pathways, and grid connection models still being defined. The country's offshore wind ambitions are real — the resource is substantial, particularly in the Northeast and in deepwater areas where fixed-bottom foundations are not viable — but the installation infrastructure question is not yet the binding constraint. Licensing, financing structures, and offtake frameworks are the current focus for Brazilian developers and regulators.

That said, Brazil's offshore engineering community has strong reasons to track the maturation of floating wind installation technology. Petrobras and independent operators with existing deepwater infrastructure and marine logistics capabilities are natural candidates to participate in a future Brazilian floating wind supply chain, whether as operators, equity partners, or service providers. The mooring, subsea, and marine operations competencies accumulated through decades of pre-salt development translate directly to floating wind installation and O&M. When the installation technology side of the equation becomes more settled — and approvals like this one are incremental steps in that direction — the barrier to Brazilian industry participation decreases.

There is also a vessel market dimension worth noting. Brazil has a significant offshore support vessel and construction vessel fleet, portions of which face utilization pressure as the pre-salt drilling campaign matures and as the composition of Petrobras's capital program continues to evolve. Floating wind installation, if it develops at scale in Brazilian waters, would represent a new demand source for that fleet — but only if the installation methodologies are defined and the vessels can be adapted or qualified for the work. The technology qualification pathway that Encomara is navigating, and that ABS is helping to validate, is upstream of that fleet utilization question.

For Brazilian naval architects, marine engineers, and EPC contractors, the practical takeaway is that the floating wind installation technology space is actively being contested by multiple developers, and classification society engagement is becoming a standard part of the commercialization process. ABS's willingness to issue PDAs for novel installation concepts reflects both the maturity of the applicants' engineering and the classification societies' own investment in developing floating wind competency.

CONTEXT

ABS has been among the more active classification societies in developing floating offshore wind technical guidance, alongside DNV and Bureau Veritas. PDA approvals for novel offshore equipment are not uncommon in the industry — similar processes have been used to advance subsea tooling, mooring connectors, and riser systems — but their application to floating wind installation hardware reflects how the sector is beginning to adopt the qualification rigor that has long characterized the oil and gas supply chain.

Encomara's approval comes as several European and Asian floating wind projects approach final investment decisions, creating a near-term commercial window for installation technology developers who can demonstrate certified, deployable solutions. Whether Brazilian projects will be part of that first commercial wave remains an open question, but the technology decisions being made now will shape the options available when that window opens in Brazilian waters.