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E-Bikes in Terminals: A Step Toward Greener Logistics, but at What Cost?

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E-Bikes in Terminals: A Step Toward Greener Logistics, but at What Cost?

As the push to decarbonize ports and terminals accelerates, interest is growing in adopting battery-powered e-bikes, e-scooters, and e-motorbikes as alternatives to traditional diesel-powered vehicles. While these electric vehicles offer a cheaper, cleaner option, cargo handling insurance specialist TT Club warns that their integration into logistics facilities presents significant safety and operational risks.

Read also: Reducing Carbon Footprints: How Logistics Can Support Green Building Initiatives

Challenges in Terminal Design and Traffic Management

Ports and logistics facilities are primarily designed to accommodate large cargo vehicles and heavy equipment. Introducing smaller, battery-powered personal vehicles into these environments creates challenges due to their lower visibility and vulnerability. Traffic layouts, road conditions, and the overall infrastructure in terminals are tailored for robust machinery, not for lightweight, two-wheeled vehicles.

Neil Dalus, TT Club’s Risk Assessment Manager, highlights the inherent dangers posed by terminal surfaces: “Designed to withstand high volumes and heavy loads, terminal pavements often suffer wear and tear, leading to uneven surfaces. For smaller wheeled vehicles, these conditions are hazardous. Rail crossings, spills, and wet surfaces exacerbate the risk, especially for two-wheeled vehicles that lack the stability of their four-wheeled counterparts.”

Safety Measures and Planning

The addition of e-bikes and similar vehicles also blurs the boundaries between different user groups, such as pedestrians and cargo-handling equipment. TT Club recommends enhanced traffic safety planning, including:
– Licensing and training programs for operators.
– Mandating the use of personal protective equipment (PPE).
– Redesigning traffic layouts to accommodate diverse vehicle types.

Fire Risks in Charging and Maintenance

The increased adoption of electric vehicles brings another pressing issue: fire risks during charging. TT Club emphasizes the need for:
– Comprehensive due diligence in vehicle and charging station procurement.
– Rigorous fire risk assessments to determine the safest locations for charging points.

Balancing Innovation and Safety

While e-bikes and similar vehicles contribute significantly to cost savings and emissions reductions, their integration must be carefully managed. Dalus concludes, “Battery-powered personal transport vehicles offer substantial benefits, but their adoption requires meticulous planning and risk management. Only by addressing these concerns can we balance innovation with safety and achieve a cleaner, more sustainable working environment in the cargo handling industry.”

As the logistics sector continues its journey toward greener operations, port and terminal operators must navigate these challenges to ensure that sustainability efforts do not come at the expense of safety and operational efficiency.

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Maersk Finalizes Order for 20 Dual-Fuel Vessels to Advance Decarbonization Goals

Maersk Secures Dual-Fuel Fleet Expansion

A.P. Moller – Maersk (Maersk) has solidified its commitment to sustainable shipping by signing agreements with three shipyards for the construction of 20 dual-fuel containerships. This milestone completes the company’s August 2024 fleet renewal plan update and adds a total capacity of 300,000 TEUs to its operations.

Read also: Maersk Commits $2 Billion to Boost Pakistan’s Port and Transport Infrastructure

Anda Cristescu, Head of Chartering & Newbuilding at Maersk, emphasized the importance of the deal, stating, “We are pleased to have signed agreements for 20 vessels and thereby completed the acquisition of 300,000 TEU capacity as announced in August. These orders are a part of our ongoing fleet renewal programme and in line with our commitment to decarbonisation, as all the vessels will have dual-fuel engines with the intent to operate them on lower emissions fuel.”

Technical and Environmental Features

The 20 vessels will feature advanced liquefied gas dual-fuel propulsion systems, capable of significantly reducing emissions compared to conventional fuels. The ships, ranging in capacity from 9,000 to 17,000 TEUs, are slated for phased delivery between 2028 and 2030.

This move aligns with Maersk’s broader sustainability strategy, which prioritizes reducing greenhouse gas emissions and transitioning to low-carbon fuels across its fleet. The dual-fuel capability is expected to facilitate operations using lower-emission alternatives such as methanol or LNG.

Broader Decarbonization Efforts

Maersk’s latest order complements other initiatives aimed at decarbonizing global logistics. In November, the company partnered with Lufthansa Cargo to promote airfreight decarbonization through the adoption of Sustainable Aviation Fuel (SAF). Furthermore, Maersk recently celebrated the maiden voyage of its newest dual-fuel methanol container carrier, which successfully completed its first journey from Asia to Europe, stopping in Singapore.

A Step Toward Sustainable Shipping

This latest order underscores Maersk’s ambition to lead the shipping industry toward a greener future. By investing in dual-fuel vessels and collaborating on cross-industry decarbonization initiatives, Maersk is setting a benchmark for sustainable logistics practices while ensuring it meets evolving global environmental standards.

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Nuclear-Powered LNG Carriers: The Future of Zero-Emission Shipping?

The American Bureau of Shipping (ABS) has released a new report evaluating the potential of advanced nuclear technology to power commercial vessels, signaling a groundbreaking shift toward zero-emission maritime operations.

Read also: LNG: The Perfect Alternative Fuel for Your Business?

Small Modular Reactors for Maritime Propulsion

In collaboration with Herbert Engineering Corporation (HEC), ABS studied the integration of a high-temperature gas-cooled reactor (HTGR) into a 145,000m³ liquefied natural gas (LNG) carrier. The research delves into critical design aspects such as energy management, shielding, weight distribution, and hull reinforcement.

The report highlights that nuclear-powered vessels could achieve faster transit times and eliminate the need for frequent refueling, requiring only reactor replacements every six years. This technology offers a promising path to zero-emission operations, helping to address one of the shipping industry’s most urgent challenges—reducing its carbon footprint.

Challenges and Opportunities

While HTGR technology has been proven on land, adapting it for maritime use presents unique challenges. According to Patrick Ryan, ABS Senior Vice President and Chief Technology Officer, “This study shows that nuclear technology could address both emissions reduction and operational efficiencies. However, its application in the maritime sector is still in the early stages.”

The design of nuclear-powered LNG carriers features reactors placed at the vessel’s rear, with batteries replacing traditional fuel tanks. Enhanced hulls provide additional safety measures. Due to technical constraints, the report suggests that HTGR technology is best suited for larger LNG carriers.

Advancing Nuclear Propulsion in Shipping

The report forms part of ABS’s broader efforts to explore nuclear solutions for maritime applications. Recently, ABS introduced the industry’s first set of rules for floating nuclear power plants in partnership with the Idaho National Laboratory (INL).

The U.S. Department of Energy (DOE) has also acknowledged the potential of nuclear propulsion, awarding ABS a contract to explore barriers to adopting advanced nuclear technology in commercial vessels.

A Turning Point for Greener Shipping

With growing industry and government support, nuclear-powered LNG carriers could revolutionize maritime transportation by offering efficient, zero-emission operations. If realized, this technology may position nuclear propulsion as a pivotal solution for achieving greener shipping in the future.

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Going Green: The Effects of LEZs across European Cities

DFS explores the impact o Low Emission Zones (LEZ) on the fueling topography of the continent in years to come.

Read also: Lessons For Ports: How To Seek $3 Billion In U.S. Grants For Zero-Emission Moves

Signs bearing the latest Low Emission Zone (LEZ) guidelines have become a familiar sight in European urban areas, with 320 LEZs now in play across the continent and 500 expected by 2025.

The system has been praised for improving air quality in cities, while reducing overall road traffic and boosting the local economies in which they operate.

According to the latest statistics, Italy is blazing a trail with 172 LEZs across the country, followed by Germany with 78. Most other countries meanwhile remain in their infancy with each boasting fewer than 20.

But is this set to change in future?

Fueling company, Dover Fueling Solutions (DFS), explore their impact and explain how Low Emission Zones (LEZ) may change the fueling topography of the continent in years to come.

Why are Low Emission Zones important?

The Clean Cities Report in 2022 cited the twin challenges of toxic air pollution and climate change as reasons for implementing LEZs.

According to the World Health Organization (WHO), air pollution is the biggest environmental risk to health, causing 300,000 premature deaths per year in the EU alone.

Starkly, EU air quality limits are reportedly being breached in over 100 cities across the continent. This places those living in urban areas at significant risk, meaning it is imperative that anti-pollution measures are taken.

Burning fossil fuels is the main cause of air pollution which includes emissions from factories, power plans and vehicles. Agriculture and its accompanying bi-products, methane and ammonia, are another leading cause while volcanoes, dust, pollen and wild fires are more natural contributors.

This not only pertains to physical health. The mental health benefits have also been corroborated.

Research demonstrates that small increases in air pollution are linked to rises in depression and anxiety amongst the urban populace. Cleaner air also means an improvement in intelligence and a lower risk of dementia too.

Looking ahead, expect to see LEZs supplanted by Zero Emission Zones. These have been trialled in European cities including Milan, Paris, Brussels, Madrid and Warsaw, with much success.

What are the recorded effects of LEZs across Europe?

This is all well and good in principle, but do LEZs bring positive effects in practice?

Well, the Clean Cities Campaign points to an average reduction in nitrogen dioxide emissions of around 20% across all LEZ areas. Further results were as follows:

London – 40%

Brussels – 33%

Paris – 24%

Lisbon – 22% 

London’s (ultra) LEZ makes for an interesting case study. A study from Bath University established that less nitrogen dioxide pollution contributed to a 4.5% reduction in long-term health problems, in addition to an 8% drop in respiratory illness.

The healthcare cost savings in dealing with this are estimated at £963 million in the Greater London area alone. Experts also predict that London’s ULEZ has helped reduce anxiety by 6%. This can be explained by the positive neurological impacts of cleaner air added to the enhanced conditions for physical exercise.

In the light-duty vehicle arena, Rotterdam’s LEZ has reduced the number of severely polluting cars by half, with an accompanying 20-30% reduction in soot.

The benefits of LEZ schemes extend beyond cleaner air too. This includes more stable traffic flows with little recorded negative business impacts. 

How is LEZ affecting clean fuel adoption?

It could also be said that LEZ are changing the face of refueling across the continent.

In the European Commission’s 2050 long-term strategy, alternative fuel sources such as electricity, Hydrogen, LNG / CNG and biofuels were outlined as cleaner alternatives to traditional liquid fuels within the transport sector.

Because these power sources avoid the use of diesel and gasoline, they can in turn, help to reduce air pollution, particularly in urban areas with a higher volume of traffic.

As a result, electric vehicle (EV) adoption, and therefore EV charging infrastructure, has been concentrated around cities – particularly those with an LEZ in place. For example, areas with an LEZ (or a planned LEZ) in operation, reached remarkably higher levels of EV penetration than their national averages.

89% of new vehicle registrations in Oslo, for instance, were Battery Electric Vehicles (BEV) or Plug-in Hybrid Electric Vehicles (PHEV), followed by Amsterdam (31%), London (22%) and Paris (20%).

Across other alternative fuels, there is a correlation too. While liquified natural gas (LNG) refueling stations tend to lie outside the bandwidth of LEZ boundaries, there’s a notably higher concentration of LNG stations within countries that have implemented LEZ and ULEZ.

This certainly shows that LEZs are having a positive impact on clean fuel adoption.

Whether this means that traditional city centre refueling stations will become a thing of the past remains up for debate, especially with the sale of ICE vehicles still permitted – in some countries – beyond 2030. One possibility, however, is that given the rise of LEZs, petrol and diesel stations may be pushed further and further out of the city and along motorway infrastructure.

Conclusion

The growth of LEZ and ULEZ across the continent has been a defining feature of recent years and looks set to continue in future.

This has brought some impressive benefits from cleaner air to better physical and mental health and reduced congestion.

There certainly appears to be a positive correlation between these zones and cleaner transport adoption, with motorists looking to combat daily charges and embrace more sustainable driving practices.

This may mean that those in more urban and metropolitan areas transition quicker than those in more rural areas, but the long-term effects remain to be seen.