Incat Delivers Record Battery Ferry as Ocean Fleets Rule Out Electric

Bloomberg Originals

Predictable schedules allow passenger ferries to pioneer marine battery systems, but severe energy density penalties mean transoceanic vessels will never run on electric power.

AI-assisted summary of How Batteries Power Some of the World’s Biggest Ferries | Bloomberg Primer — original source. Check the original for full context.

Source published: 2026-10-26

Key ideas

Australian shipbuilder Incat completed Hull 096 (China Zorrilla), a 130-meter fully battery-electric passenger catamaran equipped with over 40 MWh of storage capacity across 5,016 lithium-ion modules. (5:07)
Global shipping generated roughly 740 million metric tons of CO2 equivalent in 2024 (1.4% of global emissions), but fixed routes make passenger ferries prime candidates to pioneer battery-electric propulsion. (2:35)
Deploying Hull 096 required a $184 million capital investment backed by the IFC and Banco Santander Uruguay, alongside a $20 million government grid enhancement project in Uruguay to enable 60-minute turnaround charging. (9:11)
Industry leaders project up to 95% of short-distance ferries could transition to battery-electric propulsion, though transoceanic shipping will remain dependent on alternative fuels due to severe battery weight and range limits. (11:20)

Detailed notes

## Background Published by Bloomberg Originals on YouTube on October 26, 2026, this video report examines how advancing battery technology and mounting emissions regulations are driving the maritime sector toward clean energy. The feature focuses on the technical challenges of electrifying large vessels and visits the world's largest battery-electric passenger ferry.

## TL;DR As global shipping confronts its massive carbon footprint, short-haul passenger ferries have emerged as the ideal testbed for electrification due to their predictable routes, fixed schedules, and accessible dockside charging windows. Tasmanian shipbuilder Incat has developed Hull 096 (the China Zorrilla), a 130-meter catamaran equipped with over 40 megawatt-hours of battery storage designed to carry 2,100 passengers across the Río de la Plata at 25 knots. While the vessel balances its 250 tons of battery weight by eliminating heavy combustion engines and exhaust systems, high upfront capital costs and port grid upgrades remain significant hurdles. Ultimately, while physics and energy density limits prevent pure batteries from powering deep-sea, ocean-crossing cargo ships, these pioneer ferries serve as an essential proving ground for maritime decarbonization.

## Atmosphere & style The presentation carries a polished, analytical, and pragmatic tone typical of investigative industrial journalism, blending sweeping shipyard visuals with data-driven engineering breakdowns. Incat founder Robert Clifford injects dry, veteran humor into the discussion, balancing high-tech decarbonization ambitions with candid operational realism about speed and battery weight trade-offs. The resulting experience feels grounded and clear-eyed, exploring a major clean-energy milestone without exaggerating its immediate reach across the broader commercial fleet.

## Bulletin - [05:07](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=307s) Australian shipbuilder Incat completed Hull 096 (China Zorrilla), a 130-meter fully battery-electric passenger catamaran equipped with over 40 MWh of storage capacity across 5,016 lithium-ion modules. - [02:35](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=155s) Global shipping generated roughly 740 million metric tons of CO2 equivalent in 2024 (1.4% of global emissions), but fixed routes make passenger ferries prime candidates to pioneer battery-electric propulsion. - [09:11](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=551s) Deploying Hull 096 required a $184 million capital investment backed by the IFC and Banco Santander Uruguay, alongside a $20 million government grid enhancement project in Uruguay to enable 60-minute turnaround charging. - [11:20](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=680s) Industry leaders project up to 95% of short-distance ferries could transition to battery-electric propulsion, though transoceanic shipping will remain dependent on alternative fuels due to severe battery weight and range limits.

## Key takeaways - [00:03](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=3s) Passenger ferries serve as the primary testing ground for maritime electrification due to predictable, fixed routes and scheduled dockside charging windows. - [02:35](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=155s) Global commercial shipping accounts for roughly 740 million tons of CO2 equivalent annually, an emissions footprint larger than individual nations like Germany or South Korea. - [02:35](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=155s) Prior to pandemic disruptions, commercial ferries carried over 4 billion passengers annually and supported approximately $60 billion in global GDP. - [05:07](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=307s) Incat's Hull 096 (China Zorrilla) spans 130 meters and carries up to 2,100 passengers and 225 cars across the Río de la Plata on a 32-nautical-mile route. - [05:07](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=307s) Hull 096's battery system contains 5,016 interconnected lithium-ion modules delivering over 40 MWh of capacity, equivalent to roughly 550 electric cars. - [07:11](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=431s) While battery packs contribute 250 tons of displacement, removing internal combustion engines, exhaust systems, and fuel bunkers enables overall weight parity with conventional vessels. - [07:11](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=431s) Hull 096 is capped at 25 knots using eight 2.4 MW electric motors; higher speed requirements exponentially escalate power, battery mass, and capital expenditure. - [09:11](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=551s) The financial model of marine electrification trades high upfront capital expenditure for substantially lower ongoing energy operating costs per nautical mile. - [09:11](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=551s) Widespread electric ferry adoption requires major municipal and port grid infrastructure investments capable of delivering multi-megawatt rapid recharging. - [11:20](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=680s) Batteries cannot scale to long-haul transoceanic voyages, meaning deep-sea shipping must rely on alternative energy vectors such as synthetic e-fuels, hydrogen, or nuclear propulsion. - [12:45](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=765s) With less than 1% of the world fleet currently electrified, early battery ferries serve as critical real-world testbeds validating maritime clean energy systems.

## Detailed walkthrough ### [00:03](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=3s) Incat and the Rise of Battery-Powered Ferries

The maritime world is beginning to turn toward electric power, and while container ships and ocean liners remain daunting to decarbonize, passenger ferries have quietly emerged as the ideal proving ground. Leading this transformation is veteran Australian shipbuilder Robert Clifford, founder of Tasmanian shipbuilder Incat, whose career spans more than half a century. Reflecting on his longevity in an industry he never quite managed to leave behind, Clifford jokes, “Well, I retired 15 years ago, but that hasn’t worked out well.” Starting out as a fisherman in the 1970s before moving into commercial ferry construction during the 1980s, Clifford built Incat into a world leader in high-speed, lightweight aluminium catamarans. Now, the shipyard is pivoting toward one of its most ambitious endeavors yet: engineering a colossal, fully battery-electric passenger ship.

```mermaid flowchart LR accTitle: Hull 096 Electric Propulsion Architecture accDescr: Flow diagram showing energy storage routed to motors and waterjets for propulsion. subgraph Storage["Energy Storage (40+ MWh)"] B["4 Battery Rooms 5,016 Interconnected Modules"] end subgraph Drivetrain["Electric Drivetrain"] M["8 × 2.4 MW Electric Motors"] end subgraph Propulsion["Waterjet Propulsion"] W["8 Steerable Waterjets 25 Knots Operational Speed"] end

B --> M M --> W ```

Incat is far from alone in pursuing marine electrification. Shipbuilders across Europe and Asia are racing to deploy zero-emission vessels on coastal and inland waters. Swedish builder Candela has pioneered foiling electric passenger crafts, while Damen in the Netherlands is expanding its electric vessel line. Scale is moving fastest in Asia: by the end of 2024, the Chinese government reported having nearly 500 electric vessels operating on domestic waterways, the vast majority of which are passenger ferries.

[02:35](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=155s) Decarbonization Drivers and Why Ferries Fit Electrification

Two primary engines are driving the maritime shift toward batteries: maturing battery chemistry and escalating regulatory pressure on global carbon output. Lithium-ion batteries have undergone roughly thirty-five years of rapid technological refinement. As the battery specialist known as “Doctor for Battery” observes, “In the last three and a half decades, lithium-ion batteries have had a tremendous improvement, both in terms of cost performance, as well as the safety track record.” Concurrently, international governing bodies are tightening mandates across a sector with an enormous carbon footprint. In 2024, international shipping released roughly 740 million metric tons of carbon dioxide equivalent—representing around 1.4% of total worldwide greenhouse gas emissions. That annual footprint exceeds the combined national emissions of major industrialized economies like Germany or South Korea, trailing just behind Canada.

While ferries contribute only a fraction of total marine emissions, their role in global passenger transit is massive. According to pre-pandemic 2019 data compiled by the trade association Interferry, commercial ferries transported over four billion passengers every year and supported approximately $60 billion in global gross domestic product. What makes ferries exceptionally primed for electrification is operational certainty: they run on fixed, predictable timetables over invariant distances. Operators do not need to guess energy reserves because consumption rates and dockside charging windows can be calculated down to the minute. As Doctor for Battery explains, “The distance, the routes are very well planned out, right? So this is always one of the best places to introduce new technologies.”

- **Global shipping emissions (2024):** Approximately 740 million tons of CO₂ equivalent (1.4% of global total). - **Global ferry impact (2019 baseline):** Over 4 billion passengers transported annually; $60 billion supported in global GDP. - **Operational predictability:** Predetermined route lengths and fixed dock times allow precise battery sizing and rapid megawatt-level charging schedules.

[05:07](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=307s) Inside Hull 096: The China Zorrilla

The flagship showcase of this new era is Incat’s Hull 096, christened *China Zorrilla* after the beloved Uruguayan actress. Commissioned by the South American ferry operator Buquebus, the vessel is engineered to cross the Río de la Plata, connecting Argentina and Uruguay on a 32-nautical-mile journey that takes approximately 90 minutes each way. The scale of the ship is unprecedented for a pure battery-electric vessel: measuring 130 meters in length with a 32-meter beam, the three-deck aluminium catamaran cruises at an operational speed of 25 knots while carrying up to 2,100 passengers, 225 vehicles, and a sprawling on-board duty-free shopping complex.

To propel this immense platform without fossil fuels, the ship houses 5,016 lithium-ion battery modules across four dedicated battery rooms, each containing roughly 1,250 modules. In total, the system delivers more than 40 megawatt-hours of energy storage capacity—equivalent to the battery packs of around 550 standard electric cars. Marine battery design requires stringent protection; packs are heavily sealed to safeguard against corrosive salt spray and seawater ingress. To eliminate structural deadweight, the battery units are engineered to interconnect directly with one another without supplementary support racks or scaffolding.

- **Vessel dimensions:** 130 meters length overall, 32-meter beam. - **Service capacity:** 2,100 passengers, 225 passenger cars, plus commercial cargo and retail areas. - **Operational parameters:** 25 knots cruise speed; 32 nautical miles per leg across the Río de la Plata in ~90 minutes. - **Battery system:** 5,016 interconnected lithium-ion modules delivering over 40 MWh across 4 dedicated battery compartments.

[07:11](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=431s) The Energy Density Penalty and Propulsion Trade-Offs

The primary engineering challenge in naval electrification is the stark energy density gap between chemical fuels and electrochemical cells. Conventional marine vessels rely on high-energy-density liquid fuels such as marine gas oil, high-speed diesel, or liquefied natural gas (LNG). Because diesel stores vastly more energy per unit of weight than batteries, electric vessels require enormous battery banks to match fuel-burning range, and added weight directly increases drag through the water. Hull 096's battery arrangement alone contributes 250 metric tons to the vessel’s displacement.

However, Incat claims that Hull 096 achieves overall weight parity with a conventional counterpart. Eliminating internal combustion engines, bulky exhaust stacks, cooling auxiliaries, and massive fuel bunkering tanks drastically trims drivetrain weight. The ship's propulsion is driven by eight 2.4-megawatt electric motors connected directly to eight independent steerable waterjets.

```mermaid flowchart TD accTitle: Weight and Power Trade-Off in High-Speed Ferries accDescr: Comparison of Hull 096's 25-knot profile versus high-speed requirements. subgraph Baseline["Hull 096 Profile"] B1["25 Knots Operational Speed"] B2["8 × 2.4 MW Motors (19.2 MW Total)"] B3["250-Ton Battery System (40+ MWh)"] end subgraph HighSpeed["High-Speed Customer Demand (e.g., Denmark)"] H1["38 Knots Operational Speed"] H2["Exponential Power Increase Required"] H3["Significantly Larger Battery Tonnage & Cost"] end

Baseline -.->|"Higher Speed Demands"| HighSpeed ```

The compromise comes down to top speed: capping the design at 25 knots allows the ferry to run on roughly half the horsepower typical of a conventional fast craft. When clients demand greater speed, the physics become unforgiving. Commenting on higher-velocity projects, Clifford highlights the steep trade-offs: “The Danish customer wants 38 knots. So yeah, it is a much more powerful ship, but of course it won’t be anywhere near as economical as this ship.” Every additional knot above moderate transit speeds necessitates an exponential expansion of battery cells, structural reinforcement, and shore-charging capacity.

[09:11](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=551s) Upfront Capital, Port Infrastructure, and Grid Upgrades

The financial architecture of electric shipping differs fundamentally from fossil-fueled fleets. While operational electricity costs per nautical mile are significantly lower than purchasing bunkered diesel every day, the upfront capital expenditure for high-capacity maritime battery packs is immense. Clifford notes the core economics: “Batteries of course are expensive, but batteries are like fuel. We don’t buy the fuel every day. The electricity’s relatively cheap. The batteries are expensive.” Because commercial profitability is unproven across different route lengths, public subsidies and green financing facilities are essential to launch flagship projects.

Hull 096 represents a $184 million capital investment, backed by Banco Santander Uruguay and the World Bank’s International Finance Corporation (IFC). A significant portion of this capital was not spent on the hull itself, but on the shore-side electrical grid and charging architecture needed to replenish more than 40 megawatt-hours of batteries in an estimated 60-minute turnaround between voyages. The government of Uruguay contributed $20 million toward municipal electrical grid enhancements and specialized marine charging infrastructure at the Port of Colonia. Similar port upgrades are taking shape across northern Europe; as Clifford notes regarding upcoming European builds, “Denmark’s getting close. They’ll have the power available by the time we deliver the ships.”

[11:20](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=680s) Deployment Realities and Boundaries of Marine Electrification

In August 2026, Hull 096 marked a major milestone by departing its Tasmanian shipyard for South America, loaded aboard the semi-submersible heavy-lift vessel *Black Marlin* in a delicate marine transport operation. Yet industry experts caution that while Hull 096 proves the viability of large electric ferries, batteries cannot decarbonize the entire global commercial fleet. The weight, range, and recharging realities that make battery packs viable on 30-mile urban ferry crossings break down across transoceanic shipping routes.

Clifford is candid about the structural limits of battery technology: “I think 95% of the short distance ferries will go to to electrics at least. The longer distance ships that are crossing the, crossing oceans will never go electric.” Deep-sea container vessels and bulk carriers voyage thousands of miles between remote destinations with no en-route charging opportunities. While Chinese operators are experimenting with automated containerized battery-swapping systems on coastal and river routes, long-haul deep-sea shipping will ultimately depend on alternative zero-carbon energy vectors, including synthetic e-fuels, hydrogen molecule carriers, or onboard nuclear reactors. For now, battery propulsion remains a targeted, high-impact solution tailored for localized ferry links.

[12:45](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=765s) Proving the Potential of Electric Shipping

While by some estimates far less than 1% of the world's ships have been electrified, focusing solely on that tiny market share overlooks the broader impact of what these vessels are achieving. The transition is not necessarily about electrifying every massive ocean-going vessel overnight; rather, these early battery-powered passenger ferries are serving as a vital proving ground for maritime energy storage systems. They demonstrate that clean propulsion is both technically viable and commercially realistic, charting a clear course forward for smaller vessels operating over short, predictable routes.

Although the sector currently remains small in absolute numbers, its success establishes a template for the broader maritime industry's decarbonization efforts. As the narrator explains: “They're really proving up this technology, you know, and they're showing the way forward, not for every category of ship, but certainly for many categories of ship that are smaller, that are going across shorter distances.” Even if global adoption takes time, these pioneering ferries show the tangible potential of clean battery power on the water.

- **Current Global Adoption:** Less than 1% of the world fleet currently operates on electric power. - **Target Segments:** The primary near-term beneficiaries of battery technology are smaller ships and vessels servicing short-distance maritime routes. - **Industry Role:** High-profile battery ferries act as functional testbeds to de-risk and mature electric propulsion technology for the wider shipping sector.

## Notable quotes > [09:11](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=551s) Batteries of course are expensive, but batteries are like fuel. We don’t buy the fuel every day. The electricity’s relatively cheap. The batteries are expensive. — Robert Clifford

> [11:20](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=680s) I think 95% of the short distance ferries will go to to electrics at least. The longer distance ships that are crossing the, crossing oceans will never go electric. — Robert Clifford

## Mentioned Incat, Robert Clifford, Candela, Damen, Doctor for Battery, Interferry, Hull 096, China Zorrilla, Buquebus, Banco Santander Uruguay, International Finance Corporation, Port of Colonia, Black Marlin

## Video description Electric cars have gone mainstream in many parts of the world, but shipping has lagged behind. That may be changing thanks to better battery technology and global pressure to reduce greenhouse gas emissions in the maritime sector.

However, electrifying big ships comes with its own technological challenges, and it might be the humble passenger ferry that’s most primed to take battery-powered boats to open waters. Bloomberg sets out to visit the biggest one yet.

00:00 Intro 00:48 Ship Electrification 05:07 China Zorrilla 06:15 Batteries 07:16 Weight 09:11 Costs 11-18 The Future of Electric Ferries 13:15 Credits

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[Source](https://www.youtube.com/watch?v=s2AD7DD8_PQ)

中文简报

Incat交付创纪录电池动力渡轮远洋船队排除纯电路线可预测的班期使客运渡轮能够率先应用船用电池系统，但能量密度的严重限制意味着跨洋船只永远无法依靠纯电动力运行。随着全球航运业面临巨大的碳足迹压力，短途客运渡轮凭借可预测的航线、固定的班期以及便利的靠港充电窗口，成为船舶电气化的理想试验场。塔斯马尼亚造船厂Incat研发了096号船（China Zorrilla号），这是一艘长130米、配备超过40兆瓦时电池储能的双体船，设计以25节航速运载2100名乘客穿越拉普拉塔河。尽管该船通过取消沉重的内燃机和排气系统平衡了250吨的电池重量，但高昂的前期资本成本以及港口电网升级仍是重大阻碍。最终，尽管物理学原理和能量密度极限使得纯电池无法驱动远洋货轮，但这些先锋渡轮构成了海运脱碳不可或缺的试验平台。澳大利亚造船商Incat建成了096号船（China Zorrilla号），这是一艘130米长的全电池电动客运双体船，在5016个锂离子电池模块中配备了超过40兆瓦时的储能容量。 (5:07) 2024年全球航运业产生了约7.4亿公吨二氧化碳当量（占全球排放量的1.4%），但固定的航线使客运渡轮成为率先采用纯电池电动推进的理想选择。 (2:35) 096号船的部署需要由国际金融公司（IFC）和乌拉圭桑坦德银行支持的1.84亿美元资本投资，同时乌拉圭政府投资2000万美元进行电网改造项目，以实现60分钟周转充电。 (9:11) 行业领袖预计高达95%的短途渡轮可能转向纯电池电动推进，但由于严重的电池重量和航程限制，跨洋航运仍将依赖替代燃料。 (11:20)

Reading summary

Passenger ferries are emerging as the primary testing ground for maritime electrification because their fixed, short-distance routes accommodate the physical and infrastructure constraints of battery power. Operational Certainty Drives Ferry Electrification (2:35) International shipping released about 740 million metric tons of CO₂ equivalent in 2024, or roughly 1.4% of total worldwide emissions. While commercial ferries contribute only a fraction of marine carbon output, they carry over four billion passengers annually and generate an estimated $60 billion in global GDP according to 2019 Interferry data. Because ferries follow fixed schedules and predetermined distances, operators can precisely size battery capacity and schedule shore charging, avoiding energy-reserve guesswork that challenges unpredictable marine routes. Inside the Megawatt-Scale Hull 096 (5:07) Tasmanian shipbuilder Incat engineered Hull 096, named China Zorrilla, for South American operator Buquebus to service a 32-nautical-mile, 90-minute crossing between Argentina and Uruguay. The 130-meter aluminium catamaran can transport 2,100 passengers and 225 vehicles at an operational speed of 25 knots. Its drivetrain relies on eight 2.4-megawatt electric motors powering steerable waterjets, drawing from four dedicated battery compartments containing 5,016 interconnected lithium-ion modules that supply over 40 megawatt-hours of storage capacity. Energy Density Limits and Speed Penalties (7:11) Electrochemical cells lag behind conventional marine fuels in energy density, requiring Hull 096 to carry 250 metric tons of batteries. Incat claims the vessel maintains overall weight parity with fossil-fueled craft by eliminating combustion engines, exhaust systems, and fuel tanks. However, keeping the vessel viable requires capping speed at 25 knots, which cuts required horsepower roughly in half. Incat founder Robert Clifford notes that higher-speed requests, such as a Danish customer's 38-knot target, demand exponential increases in battery tonnage and cost that erode operational economics. High Capital Costs and Port Infrastructure (9:11) Unlike fossil-fueled vessels where operational fuel is purchased incrementally, electric shipping shifts costs to large upfront capital outlays. Hull 096 represents a $184 million investment backed by Banco Santander Uruguay and the International Finance Corporation. A substantial portion of project capital funds municipal grid enhancements and specialized marine charging stations, including $20 million contributed by the Uruguayan government at the Port of Colonia to support roughly 60-minute turnarounds between voyages. Boundaries Between Local and Deep-Sea Fleets (11:20) With electric vessels currently representing less than 1% of the global commercial fleet, battery propulsion remains confined to localized applications. Clifford estimates that up to 95% of short-distance ferries could switch to electric power, but asserts that ocean-crossing ships will never run purely on batteries. Because long-haul cargo vessels travel thousands of miles without charging opportunities, decarbonizing transoceanic shipping will instead require alternative vectors such as e-fuels, hydrogen carriers, or nuclear power. Large battery-electric ferries demonstrate the technical viability of clean marine propulsion, but their deployment remains bound to short corridors with heavily subsidized shore charging and moderate speed profiles, leaving the wider ocean-going shipping sector reliant on other decarbonization technologies.

精炼阅读摘要

尽管跨洋远洋船舶的脱碳仍然面临严峻挑战，但固定航线的客运渡轮已成为船舶电气化的核心试验场。澳大利亚造船商Incat建造的超大型纯电动双体客船Hull 096（China Zorrilla）证明了高容量电池动力在特定近海客运场景中的工程与商业可行性。渡轮成为航运电气化突破口的现实动因 (2:35) 国际航运业在2024年排放了约7.4亿吨二氧化碳当量，约占全球温室气体排放总量的1.4%，这一体量超过了德国或韩国全年的国家排放量。虽然渡轮只占海运整体碳排放的一小部分，但该行业承担着巨大的客运任务。根据行业组织Interferry在疫情前2019年的基准数据，全球商业渡轮年客运量超过40亿人次，支撑了约600亿美元的全球国内生产总值。随着监管部门对碳足迹的限制收紧，以及锂离子电池在过去约三十五年中在性价比和安全记录上的显著提升，该领域开始加速向电动化转型。 Hull 096的工程配置与重量权衡 (5:07) 由南美渡轮运营商Buquebus订购、Incat制造的Hull 096（China Zorrilla）长130米、宽32米，设计航速为25节，可搭载2100名乘客和225辆汽车，将在阿根廷与乌拉圭之间全长32海里的拉普拉塔河航线上运营，单程耗时约90分钟。该船配备4个专用电池舱和5016个紧密互联的锂离子电池模块，储能容量超过40兆瓦时，相当于约550辆普通电动汽车的电池总量。虽然单是电池系统就为船舶带来了250吨的排水量负担，但船厂通过完全省去传统内燃机、排气烟囱、冷却辅机和巨大燃油舱，实现了整船重量与传统同型船舶的基本相当，并依靠8台2.4兆瓦电动机直接驱动8个可转向喷水推进器。航速物理限制与岸电基础设施投资 (7:11) 与传统高能量密度的船用柴油或液化天然气相比，电池动力的物理权衡极其严苛。Hull 096将航速上限设定在25节，使其所需马力仅为传统高速快艇的大约一半；Incat创始人Robert Clifford指出，若客户（如丹麦客户）要求达到38节的高速，动力需求与电池吨位将呈指数级增长，经济性会大幅恶化。此外，电动船舶的财务模型表现为高昂的前期资本开支与较低的单海里电力运营成本。Hull 096涉及1.84亿美元的总投资，并获得了乌拉圭桑坦德银行与世界银行国际金融公司（IFC）的支持。为了在约60分钟的靠港时间内完成40多兆瓦时的充电，乌拉圭政府出资2000万美元对科洛尼亚港的市政电网和专用船舶充电设施进行了改造升级。技术适用边界与中短期推广前景 (11:20) 尽管欧洲的Candela、Damen以及中国船企（截至2024年底中国报告运营近500艘电动内河船舶，以渡轮为主）都在推进船舶电动化，但业内普遍认同电池动力存在明确的物理边界。Clifford预计，未来至少有95%的短途渡轮将转向纯电动，但横跨大洋的长途巨轮将永远无法单纯依靠电池驱动，后者仍需转向合成电子燃料、氢载体或船载核反应堆等替代方案。目前全球商船队中已实现电气化的比例远低于1%，但作为先驱的电池动力客运渡轮，通过在短距离、可预测航线上打通技术和商业路径，为更广泛的近海船舶脱碳提供了降本与验证范式。电池动力渡轮的成功确立了船舶近海低碳运营的技术基准，但受制于电池能量密度与高昂的港口电网改造成本，其适用性仍严格局限于预定航程和固定泊位。跨洋深海货运与超高速航行领域的脱碳，仍有待其他零碳替代能源的进一步发展。

Detailed notes — zh

## Background 该视频由彭博旗下频道 Bloomberg Originals 于 2026 年 10 月 26 日发布在 YouTube 平台。视频简介指出，在电动汽车已走向大众化的同时航运业脱碳却相对滞后，但随着电池技术的突破与海运减排压力的激增，短途客运渡轮正在成为率先实现纯电动力化的突破口，彭博团队借此实地探访了当时全球体量最大的全电动渡轮项目。 ## TL;DR 视频深入探讨了航运业在全球脱碳压力下的电气化转型，并聚焦于客运渡轮凭借固定航线与可预测电耗成为最理想技术试验田的产业逻辑。片中重点剖析了澳大利亚 INCAT 造船厂为乌拉圭运营商建造的全球最大纯电客船“China Zorrilla”（Hull 096），展示了其配备 40 多兆瓦时巨型电池系统与轻量化铝合金船体的工程突破。最后，行业专家与造船老兵指出，尽管面临能量密度限制、高昂初期成本及港口电网配套等挑战，纯电动虽无法取代跨洋远洋巨轮，但预计将拿下绝大多数短途客运航线，为全球航运清洁化确立了切实可行的范式。 ## Atmosphere & style 全片呈现出彭博一贯沉稳、专业且充满工业美感的纪录片质感。镜头在塔斯马尼亚造船厂的钢铁巨构与专家深入的技术剖析间流畅切换，造船老兵 Robert Clifford 的幽默访谈则为严肃的硬核工程叙事增添了温暖的人情味。整体观感在对气候挑战的冷峻反思与见证突破性工业工程落地带来的振奋感之间达成平衡，兼具前沿科技的探索感与商业投资的审慎理性。 ## Bulletin - [05:10](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=310s) 澳大利亚造船厂 INCAT 打造出全球最大的铝制纯电动客船 China Zorrilla（Hull 096），搭载超 40 MWh 电池，将服务于乌拉圭与阿根廷之间的拉普拉塔河航线。 - [02:22](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=142s) 国际航运业在 2024 年温室气体排放量高达约 7.4 亿吨二氧化碳当量，占全球总碳排的 1.4%，排放体量已超越德国或韩国等大型工业国。 - [04:01](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=241s) 短途渡轮具备航线固定、电量消耗可预测、靠泊补能时间明确三大特征，成为当前电池动力船舶最具工程和经济可行性的先锋试验田。 - [07:11](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=431s) 业界面临显著的能量密度与航速妥协：Hull 096 电池系统自重达 250 吨，为兼顾经济性将运营航速控制在 25 节，远低于传统快速渡轮的 30 节以上水平。 - [09:11](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=551s) 造船专家指出，未来预计至少 95% 的短途渡轮将实现纯电化，但跨洋远洋巨轮因物理极限将难以依靠纯电池驱动，仍需转向液氢、氨能或核动力。 ## Key takeaways - [00:03](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=3s) 航运业脱碳进程长期落后于陆运，但受电池技术突破与国际减排监管强化的双重驱动，正加速开启电气化转型。 - [00:52](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=52s) 全球电动客船研发快速兴起，中国在 2024 年底已有近 500 艘电力驱动船舶航行，其中绝大多数为渡轮。 - [04:01](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=241s) 全球渡轮年客运量超 40 亿人次并支撑 600 亿美元 GDP，其高度可预测的运行模式是验证船用电池系统的绝佳场景。 - [05:10](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=310s) China Zorrilla 船长 130 米，配有 3 层甲板并能搭载 2,100 名乘客与 225 辆汽车，总电池容量相当于 550 辆主流纯电乘用车。 - [05:10](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=310s) 全船配备 4 间独立电池舱共 5,016 块锂电池，采用无外部支架的模块化互联结构以减轻自重并优化空间占用。 - [07:11](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=431s) 得益于轻质铝合金船体与精简内燃机管路系统的轻量化设计，纯电推进总成净重低于满油状态的同级传统船舶。 - [07:11](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=431s) 船舶推进功率需求随航速呈指数级上升，追求极高航速将严重破坏纯电船舶的经济性与续航表现。 - [09:11](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=551s) 纯电船舶运营逻辑类似于一次性预付燃料费，尽管电池前期资产沉淀巨大，但长期充电运行成本相对低廉。 - [09:11](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=551s) 电动渡轮落地依赖高额跨国绿色金融与港口岸电基建，Hull 096 获 IFC 等注资 1.84 亿美元，港口电网配套投资亦达 2,000 万美元。 - [12:45](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=765s) 尽管目前电动化船舶占全球船队比例远低于 1%，但中小型短途渡轮的工程落地正为海运脱碳提供最坚实的技术验证。 ## Detailed walkthrough ### [00:03](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=3s) 航运减碳的困境与渡轮的先锋角色在电动汽车已在世界许多地区成为主流的今天，航运业的脱碳进程却明显落后，成为最难实现去碳化的行业之一。不过，伴随着电池技术的演进以及全球对减少海运温室气体排放的强烈呼声，这一格局正在被打破。由于远洋巨轮面临着续航与重量的严苛限制，体量相对较小、航线固定的客运渡轮展现出了独特的先发优势，正在成为引领纯电动船舶驶向公开水域的先锋力量。 - 建造中的代表性船舶是全球最大的铝制电池动力全电动船。 - 航运业正处于电气化的极早期阶段，而渡轮是目前最契合电池驱动特性的船型。 --- ### [00:52](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=52s) 造船老兵与全球电动渡轮浪潮在澳大利亚塔斯马尼亚，资深造船专家 Robert Clifford 带领着知名造船厂 INCAT 投身于这场绿色变革。Clifford 笑着调侃自己的职业生涯：“Well, I retired 15 years ago, but that hasn't worked out well.”（我15年前就退休了，但这事儿显然没办成）。他自 1970 年代以渔民身份入行，80 年代起全面转向渡轮建造，多年来打造了无数客运双体船。如今，INCAT 迎来了极具颠覆性的新挑战：从零设计并工程化制造一艘完全由电池驱动的巨型电动渡轮。这种转变并非个例，全球范围内各具特色的电池动力渡轮正陆续驶向江河湖海。尽管整体规模尚小，但增长势头极为强劲。瑞典的 Candela 和荷兰的 Damen 等制造商在电动客船研发上处于领跑地位；而在中国，政府在 2024 年底公布的数据显示，水面上已有将近 500 艘电力驱动船舶在航行，其中绝大多数正是渡轮。 --- ### [02:22](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=142s) 驱动航运转型的两大催化剂：技术突破与气候压力长期以来在减碳上落后于陆运的航运业，为何在近期加速拥抱电气化？核心推手来自两端：技术成熟度与国际监管压力。自称“电池医生”（Doctor for Battery）的行业专家指出，过去三十五年间，锂离子电池不仅在性价比上实现了飞跃，安全记录也大幅改善，这让电池技术在经济和工程可行性上真正敲开了航运界的大门。另一大推力来自国际组织对海运碳足迹日益严厉的管控。彭博行业分析数据显示，仅在 2024 年，国际航运业产生的二氧化碳当量（用以计算所有温室气体）就高达约 7.4 亿吨，占全球总碳排放量的约 1.4%。这一排放规模超过了德国或韩国等大型工业化经济体，仅略低于加拿大的全国排放总量。 --- ### [04:01](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=241s) 渡轮的先天优势：高预测性与固定航线尽管渡轮产生的排放仅占全球航运的一小部分，但它们却是沿海城市交通的关键生命线。行业协会 Interferry 的一份基于 2019 年（疫情前）数据的研究显示，全球渡轮每年运送超过 40 亿人次，支撑着高达 600 亿美元的全球 GDP。更为关键的是，渡轮极度规律的运行模式使其成为最适合电气化的场景： 1. **短途且固定**：渡轮始终在固定的始发港与终点港之间穿梭。 2. **电量消耗高度可测**：运营方能精确计算出每次航行所需的电量消耗。 3. **充电窗口明确**：停靠码头的时间固定，便于精准规划大功率岸电补能节奏。正如技术专家所总结，在设计参数完全可控的环境下，渡轮是引入全新动力系统最安全、最理想的试验田。 --- ### [05:10](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=310s) 世界最大纯电船：China Zorrilla（Hull 096） INCAT 建造的这艘开创性电池动力渡轮在船厂内部代号为“Hull 096”，由乌拉圭轮渡公司 Buquebus 运营，正式命名为“China Zorrilla”，以纪念乌拉圭已故著名女演员。该船将横跨拉普拉塔河（Río de la Plata），往返于乌拉圭与阿根廷之间，单程航程约 32 海里，航行耗时约 90 分钟。 ```mermaid flowchart LR accTitle: China Zorrilla 规格与核心参数 accDescr: 展示 Hull 096 纯电动渡轮的船体尺寸、载客载货能力以及动力电池系统配置 subgraph Vessel["船体规模与承载"] L["长: 130 米"] W["宽: 32 米"] Cap["3层甲板 2,100名乘客 225辆汽车 / 免税店"] end subgraph Powertrain["纯电动推进核心"] Bat["5,016 块锂电池 40+ MWh 容量"] Motors["8 台 2.4 MW 电机 驱动 8 具独立喷水推进器"] Speed["运营巡航航速: 25 节"] end Vessel --> Powertrain ``` 作为目前体量最庞大的纯电动客船，它的物理与性能指标打破了行业认知： - **船体尺寸**：长 130 米，宽（型宽）约 32 米，共有 3 层甲板，船上甚至配备了大型免税店。 - **电池容量**：搭载 5,016 块锂离子电池，总能量储备超过 40 兆瓦时（MWh），相当于 550 辆主流纯电动乘用车的电池总和。 - **安全与模块化设计**：全船共设 4 间独立的专用电池舱，每间容纳 1,250 块电池。与陆运车辆相比，船用电池拥有极强的防水防盐雾密封保护。电池组之间采用互联结构，无需额外的外部支架和脚手架，大幅减轻了结构自重并压缩了空间占用。 --- ### [07:11](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=431s) 能量密度瓶颈：重量、航速与成本的拉锯在船舶工程中，核心挑战始终围绕着“重量”展开。重柴油、轻柴油或液化天然气（LNG）等传统化石燃料具有无与伦比的高能量密度，而电池单位重量存储的能量要低得多。船上搭载的这套电池系统自重就高达 250 吨。为了在庞大自重下维持浮力与能效，工程团队采用了类似电动汽车的轻量化减法逻辑：摒弃内燃机庞大的外围管路与辅助系统，配合轻质的铝合金船体，使得 Hull 096 的纯电推进总成净重甚至低于一艘装满燃油的同级别传统船舶。该船由 8 台 2.4 兆瓦的电动机直接驱动 8 具喷水推进器进行推进行驶与转向。然而，妥协也随之而来——那就是**航速上限**。常规燃油快速渡轮航速通常在 30 节以上，而 Hull 096 的运营航速设定在 25 节，其动力系统总功率仅为同尺寸传统燃油船的一半左右。对于追求极致效率的航运运营来说，航速每提升一点，对电池数量和电功率的需求都会呈指数级飙升。Clifford 透露，已有丹麦客户提出希望建造航速达到 38 节的电动渡轮：“The Danish customer wants 38 knots. So yeah, it is a much more powerful ship, but of course it won't be anywhere near as economical as this ship.”（丹麦客户想要 38 节的航速。所以是的，那将是一艘动力强大得多的船，但其经济性肯定远不如这艘船）。 --- ### [09:11](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=551s) 资本投入、岸电基建与航运电气化的边界在商业化初期，电动渡轮面临着高昂的前期溢价。正如 Clifford 所言：“Batteries of course are expensive, but batteries are like fuel. We don't buy the fuel every day. The electricity's relatively cheap. The batteries are expensive.”（电池当然很贵，但电池就相当于燃料。我们不用每天买燃料，电费相对便宜，贵的是电池本身）。目前，制造纯电渡轮的利润率是否能够超越传统船舶仍不明朗，因此政府补贴与绿色金融支持成为了关键支撑。电动船舶的落地成本远不止造船本身，港口岸电网络与电网升级构成了庞大的基建支出： - **项目总投**：Hull 096 总投资达 1.84 亿美元，获得了桑坦德银行乌拉圭分行（Banco Santander Uruguay）以及世界银行旗下国际金融公司（IFC）的联合注资。 - **充电与电网配套**：该船单次往返需进行约 60 分钟的大功率补能。乌拉圭政府额外投资了 2,000 万美元用于改造电网系统，在科洛尼亚（Colonia）港口配套建设专属高压充电设施。 2026 年 8 月，Hull 096 整体吊装至半潜式重吊船“黑马林鱼”号（Black Marlin）上，展开了运往南美的复杂越洋转运。然而受访专家普遍达成共识：电池动力不是远洋货轮的万灵药。Clifford 明确断言：“I think 95% of the short distance ferries will go to electrics at least. The longer distance ships that are crossing oceans will never go electric.”（我认为至少 95% 的短途渡轮会转为纯电动。而跨越远洋的长途货轮则永远不可能实现全电池化）。对于动辄跨洲航行数万海里的大型集装箱船与散货船，即便中国部分航线尝试了内河货船的“换电模式”（battery swapping），远洋端依然需要依赖液氢、氨能分子载体甚至核动力等替代能源。电动渡轮虽在整个庞大航运舰队中占比微小，但它为船舶脱碳探索出的工程路径，已然在近海与内河翻开了新的篇章。 ### [12:45](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=765s) 电动化在航运业中的先锋意义与未来潜力尽管根据多方估算，目前全球真正实现电动化并符合此类标准的船舶比例甚至远低于 1%，但这绝不意味着该领域的探索缺乏价值。如果仅以目前极低的渗透率来评判其前景，就几乎完全忽视了这项变革的核心意义。正如讲述人指出的那样：“They're really proving up this technology, you know, and they're showing the way forward, not for every category of ship, but certainly for many categories of ship that are smaller, that are going across shorter distances.” 这种以客运渡轮为代表的先锋尝试，正在以无可辩驳的实际运营成果验证电池动力技术的可行性，并为整个行业指明前路。现阶段电池动力虽然无法覆盖航运业的所有船型，尤其是跨大洋的远洋巨轮，但对于体量较小、航行距离较短的船只种类而言，其应用价值已经得到充分体现。即便目前纯电动船舶在整体航运市场中所占的份额依然很小，这些划时代项目的落地与运营，正在清晰地向全世界展现出船舶全面走向清洁能源与零排放的巨大潜力。 - 行业渗透率现状：据估算，目前完成电动化转型的船舶数量占全球船队的比例远低于 1%。 - 适用场景与定位：短途航线与中小型船只是当前电池动力系统最理想、最成熟的落地方向。 - 技术验证价值：虽然当前市场总规模有限，但大型纯电渡轮的成功运营，为未来更多船型的电动化路径提供了坚实的技术支撑与范式参考。 ## Notable quotes > [09:11](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=551s) I think 95% of the short distance ferries will go to electrics at least. The longer distance ships that are crossing oceans will never go electric. — Robert Clifford > [09:11](https://www.youtube.com/watch?v=s2AD7DD8_PQ&t=551s) Batteries of course are expensive, but batteries are like fuel. We don't buy the fuel every day. The electricity's relatively cheap. The batteries are expensive. — Robert Clifford ## Mentioned Bloomberg Originals, Robert Clifford, INCAT, Candela, Damen, Interferry, China Zorrilla, Buquebus, 桑坦德银行乌拉圭分行 (Banco Santander Uruguay), 国际金融公司 (IFC), 黑马林鱼号 (Black Marlin) ## Video description Electric cars have gone mainstream in many parts of the world, but shipping has lagged behind. That may be changing thanks to better battery technology and global pressure to reduce greenhouse gas emissions in the maritime sector. However, electrifying big ships comes with its own technological challenges, and it might be the humble passenger ferry that’s most primed to take battery-powered boats to open waters. Bloomberg sets out to visit the biggest one yet. 00:00 Intro 00:48 Ship Electrification 05:07 China Zorrilla 06:15 Batteries 07:16 Weight 09:11 Costs 11-18 The Future of Electric Ferries 13:15 Credits #shipping #ferry #battery #electrical #boat -------- Like this video? Subscribe: http://www.youtube.com/Bloomberg?sub_confirmation=1 Get unlimited access to Bloomberg.com for just $1.99 your first month: https://www.bloomberg.com/subscriptions?in_source=YoutubeOriginals Bloomberg Originals offers bold takes for curious minds on today’s biggest topics. Hosted by experts covering stories you haven’t seen and viewpoints you haven’t heard, you’ll discover cinematic, data-led shows that investigate the intersection of business and culture. Exploring every angle of climate change, technology, finance, sports and beyond, Bloomberg Originals is business as you’ve never seen it. Subscribe for business news, but not as you've known it: exclusive interviews, fascinating profiles, data-driven analysis, and the latest in tech innovation from around the world. Visit our partner channel Bloomberg News for global news and insight in an instant. [Source](https://www.youtube.com/watch?v=s2AD7DD8_PQ)

Source quotes

[9:11] Robert Clifford: I think 95% of the short distance ferries will go to electrics at least. The longer distance ships that are crossing oceans will never go electric. [9:11] Robert Clifford: Batteries of course are expensive, but batteries are like fuel. We don't buy the fuel every day. The electricity's relatively cheap. The batteries are expensive.

Source quotes

[9:11] Robert Clifford: Batteries of course are expensive, but batteries are like fuel. We don’t buy the fuel every day. The electricity’s relatively cheap. The batteries are expensive. [11:20] Robert Clifford: I think 95% of the short distance ferries will go to to electrics at least. The longer distance ships that are crossing the, crossing oceans will never go electric.

Original transcript

[0:03] - This is the world's largest electric ship made [0:07] of aluminium and powered by batteries. [0:15] - The room we're in here is kind of the hub of everything. [0:18] - Lots and lots and lots of batteries. [0:22] - Shipping is one of the hardest sectors to decarbonize. [0:27] - Shipping is in the early days of electrification, [0:30] but perhaps it's the ferry that seems uniquely primed [0:34] to take batteries to open waters. [0:52] - Well, I retired 15 years ago, [0:54] but that hasn't worked out well. [1:00] - This is Robert Clifford, a veteran shipbuilder [1:03] who designs mostly passenger ferries. [1:06] - This goes back to when I was a fisherman [1:11] in the '70s [1:13] and then got into the ferry building in the '80s. [1:17] - He's built a lot of ferries in his time. [1:20] - The first aluminium boat, a tank test model there. [1:24] This is the Japanese version. [1:25] Business Club Australia chartered this boat. [1:29] - One of INCAT's most recent projects involved something [1:32] new: designing [1:35] and engineering an electric ferry powered [1:37] entirely by batteries. [1:39] - This is actually a battery module. [1:42] It's a mock-up of it, but that's [1:43] what a battery module looks like. [1:45] - It's not just INCAT making the jump. [1:48] Around the world, battery-powered ferries [1:50] of all designs are entering waterways. [1:53] The industry is still small, but growing. [1:56] - There are a couple of manufacturers within the shipping [1:59] industry that have really taken a lead with the production [2:03] of electric ferries. [2:05] Candela in Sweden, also Darman in the Netherlands. [2:09] We saw China's government at the end of 2024 [2:13] indicate they had almost 500 [2:16] electric powered vessels on the water. [2:18] The majority of those were ferries. [2:22] - There are reasons for the recent pivot towards [2:25] electrification and the use [2:26] of other fuel alternatives in shipping, long [2:29] after electric vehicles have already become mainstream in [2:32] certain parts of the world. [2:35] - There are several factors pushing the shipping industry [2:38] towards decarbonization. [2:40] - One comes down simply to better technology. [2:44] And for electric ships, that means batteries. [2:48] - So my nickname is Doctor for Battery. [2:52] Battery is my passion. [2:56] In the last three [2:57] and a half decades, [2:58] lithium-ion batteries have had a tremendous improvement, [3:02] both in terms of cost performance, as well [3:06] as the safety track record. [3:08] So this kind of cost performance ratio improvement really [3:12] made the battery technology accessible now if the shipping [3:17] industries are looking at the option. [3:20] - Another comes down to increased pressure from some global [3:23] bodies to reduce greenhouse gas emissions in [3:25] the maritime sector. [3:28] - The shipping industry's climate footprint is huge. [3:31] If we look at data we have for 2024, [3:35] international shipping accounted for about 740 million tons [3:40] of carbon dioxide equivalent. [3:42] That's the measure that we use to calculate [3:45] all greenhouse gases. [3:46] To put it in context, that was roughly 1.4% of [3:51] all global emissions. [3:53] It was more than economies like Germany and South Korea, [3:57] and it was only a little bit less than a [3:58] country like Canada. [4:01] - Ferries only make up a small percentage [4:03] of shipping emissions, but they play a crucial lifeline in [4:07] urban coastal environments, carrying people, [4:09] vehicles, and cargo. [4:11] A study for the trade association into ferry, [4:14] based on data from 2019, [4:16] before COVID-era disruptions, suggested [4:19] that ferries carried more than four billion passengers [4:22] annually and supported $60 billion in GDP globally. [4:27] And they're uniquely suited to electrification [4:30] because they're so predictable. [4:32] Ferries travel short fixed distances with regular routes. [4:36] - What does that mean for ferry operators? [4:39] You know, it means they know exactly [4:41] how much charge a battery-powered ferry is going [4:43] to need to complete the journey. [4:45] They know exactly how much time they're going to have [4:48] to recharge the ferry when it's docked in port. [4:52] - The distance, the routes are very well planned out, right? [4:56] So this is always one of the best places [4:59] to introduce new technologies. [5:01] We could calculate the load, the size of the ships, [5:05] and the design parameters are well within control. [5:10] - Incat's first battery electric ferry will also run a [5:13] predictable route. [5:16] Internally, it's called Hull 096, [5:18] though its official name operated [5:20] by the Uruguayan company Buquebus is China Zorilla. [5:25] Named after the Uruguayan actress. [5:28] Once in operation, the passenger ferry will cross the Rio de [5:32] la Plata, connecting Uruguay and Argentina [5:35] and take about 90 minutes [5:36] to travel about 32 nautical miles each way. [5:40] And as you can tell, it's big. [5:45] - The vessel's 130 metres long. [5:47] Its beam or its width is about 32 metres wide. [5:50] The vessels are capable [5:51] of doing an operational speed of 25 knots. [5:54] It's fully electric. [5:56] - All in all, Hull 096 has three floors [6:00] and is designed to carry 2,100 passengers, [6:03] 225 cars, [6:06] and oh yes, it will have a duty-free shop. [6:13] And then there are batteries. [6:17] 5,016 lithium ion batteries to be exact, [6:22] delivering more than 40 megawatt hours of energy capacity, [6:26] enough to power around 550 electric cars. [6:30] - The batteries that we use on electric ferries are much [6:34] better protected than the ones we'd see in electric [6:38] trucks and electric cars. [6:39] They're designed specifically [6:42] to keep salt water out of the battery. [6:46] - So this room is one of four [6:48] and we have 1,250 batteries in this room. [6:52] So these batteries are connected together, [6:55] so there's no other structure around the battery. [6:58] So these are a lightweight option [7:00] because there's no scaffolding, there's no other bracketing. [7:04] The batteries interconnect to each other, [7:06] which reduces the amount of space they take up, the amount [7:08] of weight that they use. [7:11] - One big challenge of designing an electric ship comes down [7:14] to just that, weight. [7:17] And for its weight, traditional fuel still packs more [7:20] energy than batteries. [7:23] - The specific fuels that we could use on a, on a, [7:25] on a conventional vessel like this could be a heavy diesel, [7:28] it could be high speed diesel or it could be LNG. [7:33] - Good for boats, not for emissions. [7:36] - Traditional fuels really pack in energy density. [7:39] They're really powerful in a way that batteries are not, [7:43] and that means electric ships need lots of batteries [7:46] and more batteries means more weight. [7:50] - This arrangement what we have with batteries is 250 tons. [7:55] - In the electric vehicle, [7:57] all the internal combustion engine cars, all the periphery [8:01] support structures are taken away. [8:03] So the drivetrain, [8:05] the electrical motor is actually very light. [8:09] - It's the same concept with this ferry. [8:12] Incat claims Hull 096's batteries [8:14] and electric propulsion system weigh less than a fuel [8:17] powered equivalent loaded with fuel. [8:21] Hull 096 is equipped with eight 2.4 megawatt electric motors [8:26] that power eight individual waterjets, which help propel [8:29] and steer the ferry. [8:32] But there's a catch. [8:34] - This ship has only got a pack maximum speed of 25 knots. [8:38] So it, it's only half the power [8:41] that we would normally see on a ship. [8:44] - To get more speed, you need, you guessed it, [8:47] more batteries and an optimised propulsion system. [8:51] It's an issue the company is already starting to think about [8:54] for some orders in Denmark. [8:56] - The Danish customer wants 38 knots. [8:59] So yeah, it is a much more powerful ship, [9:02] but of course it won't be anywhere near [9:04] as economical as this ship. [9:05] That extra amount of speed will require a lot more batteries [9:09] and a lot more electrical power. [9:13] - And there will be a premium on cost in the very early [9:16] stages at least. [9:18] - It's very difficult to say. [9:20] Batteries of course are expensive, [9:22] but batteries are like fuel. [9:24] We don't buy the fuel every day. [9:26] The electricity's relatively cheap. [9:28] The batteries are expensive. [9:30] - The one thing that isn't necessarily clear right now is, [9:34] is producing electric ferries more profitable [9:39] than producing traditional ferries or ships? [9:42] - While many ferries are operated by private companies, [9:45] many still receive government subsidies in order to stay [9:48] afloat, pun intended. [9:51] And for electric ships, [9:53] the cost isn't just building the vessel, [9:55] it's building all the infrastructure around it. [9:59] - Just like electric cars, you know, [10:01] government subsidies can really [10:03] play a role in getting these segments off the ground, [10:06] and it's certainly the case for electric shipping [10:09] that whether it's for the vessels themselves, whether it's [10:12] for the infrastructure needed to support them, whether [10:15] that's charging at ports, [10:18] electricity transmission infrastructure, [10:20] there's been support [10:22] to help companies switch to this technology. [10:26] - Total investment in Hull 096 of $184 million [10:30] included financing from Banco Santander, Uruguay [10:33] and the World Bank's International Finance Corporation. [10:38] Crucially, part of [10:39] that funding went towards charging infrastructure needed [10:42] to power it, which is estimated [10:44] to take about 60 minutes per trip. [10:47] Uruguay also invested in a project worth $20 million [10:51] in order to make grid updates [10:53] and to add charging for ships in the port of Colonia. [10:57] - It's realistic to expect that for some ports, [11:00] for some countries, for, for some markets, the challenge [11:04] of adding sufficient charging infrastructure is going [11:07] to be a lot easier than others. [11:10] - We're quite happy to see the ports come on one at a time. [11:14] Denmark's getting close. [11:16] They'll have the power available [11:17] by the time we deliver the ships. [11:20] - In August 2026, Hull 096 began its journey to South America [11:25] after being loaded onto another heavy lift vessel called [11:29] Black Marlin in a maneuver [11:31] so complex it probably deserves its own video. [11:36] Just don't expect to see all ships go electric. [11:40] - I think 95% of the short distance ferries will go to [11:44] to electrics at least. [11:46] The longer distance ships that are crossing the, [11:48] crossing oceans will never go electric. [11:51] - For really long distance shipping, right now it's hard [11:56] to see how batteries can become part of the solution. [12:00] They are traveling incredible distances, [12:03] nowhere near charging infrastructure. [12:06] - To get around this challenge, [12:08] some Chinese companies are looking to battery swapping [12:11] for larger cargo ships. [12:15] - Battery power will be a solution for part [12:18] of the shipping sector, but not all of it. [12:20] - We have many other technologies like the hydrogen [12:25] molecule carriers and maybe even nuclear. [12:29] Those are the better options for super large ships [12:32] and the super long distance shipping trips. [12:36] - The market for electric ferries is incredibly small if [12:41] we're going to compare it to the size [12:43] of the global shipping fleet. [12:45] It would be, by some estimates, far less than 1% [12:50] of ships that have gone electric [12:52] and that meet that category. [12:55] But that's almost to miss the point. [12:57] They're really proving up this technology, you know, [13:00] and they're showing the way forward, not for every category [13:03] of ship, but certainly for many categories of ship [13:07] that are smaller, that are going across shorter distances. [13:11] So the size of the sector isn't huge, [13:14] but it is showing that potential.