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The battery technology driving sustainable change in the EV industry


Konstantin Solodovnikov, CEO, Innolith  

A common belief in the e-mobility industry is that Lithium-ion batteries have reached their full potential. But this is where the EV market’s most damaging crisis is rooted. Because if true, what was meant to make electric vehicles (EVs) a critical part of our future has played a pivotal role in stunting adoption – battery sustainability.

Current EV battery production and disposal methods harm the environment more than their internal combustion engine (ICE) vehicles counterparts. The use of cathode materials and the resulting environmental footprint is a core factor, and Lithium-ion batteries not being fully recyclable only exacerbates the situation.    

Some have looked for alternative sources to spearhead battery cell innovations, like Solid State and Silicon Anode. Over the past 12-18 months the former proved to have manufacturing and cost issues, and the latter performance challenges. Others in the industry have turned to battery cells powered by iron, magnesium and silicon.

Breakthrough battery innovation to power e-mobility


But it’s the development of the first Li-ion battery to use the only fully recyclable inorganic electrolyte that is set to free EVs from the key barriers to mass adoption.

This breakthrough in battery chemistry innovation means EV battery cells containing fully recyclable electrolytes are now a reality. As such, EV battery production can become a significantly cleaner process than previously thought. These new cells will reduce the use of key components lithium, nickel, cobalt and manganese by 20% per kWh and offers an unforeseen opportunity to reuse sulphur dioxide (SO2), a by-product of mining and related polluters. 

Championing a circular economy

At the current rate, landfill sites will be filled with 250,000 tons of battery over the next 15 years. These new inorganic electrolytes help address this problem as they can be recycled repeatedly. In addition to supporting a circular economy, they reduce waste management requirements, which come with their own environmental and financial costs.

If used worldwide, inorganic electrolyte battery cells could reuse up to 10% of manmade SO2 pollution by 2035. Furthermore, the huge reduction in raw materials will significantly diminish the EV industry’s environmental impact. Together, these factors complement six of the UN’s sustainability goals, including, making EVs more accessible to all, lowering costs and leveraging the circular economy.

Mass adoption is certainly possible. Inorganic electrolyte battery cell technology can be easily integrated into 99% of the e-mobility market and all EV manufacturer production lines where cylindrical batteries are used. It is also highly compatible with existing and future supply chains, production equipment, and processes

But this isn’t the limit of the benefits for EV manufacturers. Via better production processes, raw material integration and improved efficiency of the use of the energy inside of a battery pack, these new battery cells will achieve 10-20% improved performance.

Rolling with the climate

One often-overlooked barrier to EV adoption is temperature range. This has hindered car buying markets and the adoption of EVs in areas like warehouse logistics, transport and manufacturing.

At 0°C, conventional EV batteries experience a drop in performance that gets significantly worse as temperatures fall. The new inorganic non-flammable electrolytes provide vastly improved temperature ranges – from -40°C to +60° C for discharge and -20°C to +60°C for charging – allowing batteries to operate in extreme conditions.

All-weather battery cell technology opens up the possibility of e-mobility entering space travel and delicate earthbound ecosystems, with new EV batteries supporting scientific discoveries as they fuel vehicles through environments ICE emissions would damage.

A greener, safer, longer dive

These environmental credentials have been developed without sacrificing battery performance too. Inorganic electrolytes provide higher energy density, superior charging times, and a 40% reduction in heat release in case of a thermal runaway for better safety.

EVs will now be able to deliver on their promise of addressing the environmental issues created by ICE vehicles. With the new breed of cells overcoming the limitations of conventional Li-ion batteries, it provides an economical alternative that reduces costs and EVs that need less maintenance and service support – encouraging adoption.

Building European momentum

Global demand for Li-ion battery demand is to increase ten-fold with China and Europe expected to be the largest contributors. And EV sales are rising globally, with 52% of consumers looking to buy according to the recent EY Mobility Consumer Index (MCI).

Here, we find China is still dominating the global battery race. EVs rely on Li-ion batteries of which China produces 76%, while the U.S. makes only 8% and Europe even less at 3%. As such, China leads EV battery supply (76%) and the world EV market.

Developed and produced in Switzerland and Germany, recyclable electrolyte batteries mean Europe can close the gap in China’s dominance in the EV battery market and control of the supply chain.

Europe has a heritage in the automotive industry and an economy that prides itself on environmental leadership. Batteries with increased performance and sustainability credentials are critical for the mass adoption of EVs but thus far most of the innovation has come from Asia. Europe needs to have a seat at the table.

Good things happen when there’s competition – it spurs further innovation.

Breakthroughs and advances in Li-ion battery tech have given it a new lease of life and one that means EVs can fulfil their true potential in the next few years, not in the future. This presents an opportunity to advance sustainable change, encourage EV adoption and champion European innovations on a global stage.

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Could electric vehicles be the answer to energy flexibility?

Rolf Bienert, Managing and Technical Director, OpenADR Alliance

Last year, what was the Department for Business, Energy & Industrial Strategy and Ofgem published its Electric Vehicle Smart Charging Action plans to unlock the power of electric vehicle (EV) charging. Owners would have the opportunity to charge their vehicles while powering their homes with excess electricity stored in their car.

Known as vehicle to grid (V2G) or vehicle to everything (V2X), it is the communication between a vehicle and another entity. This could be the transfer of electricity stored in an EV to the home, the grid, or to other destinations. V2X requires bi-directional energy flow from the charger to the vehicle and bi- or unidirectional flow from the charger to the destination, depending on how it is being used.

While there are V2X pilots already out there, it’s considered an emerging technology. The Government is backing it with its V2X Innovation Programme with the aim of addressing barriers to enabling energy flexibility from EV charging. Phase 1 will support development of V2X bi-directional charging prototype hardware, software or business models, while phase 2 will support small scale V2X demonstrations.

The programme is part of the Flexibility Innovation Programme which looks to enable large-scale widespread electricity system flexibility through smart, flexible, secure, and accessible technologies – and will fund innovation across a range of key smart energy applications.

As part of the initiative, the Government will also fund Demand Side Response (DSR) projects activated through both the Innovation Programme and its Interoperable Demand Side Response Programme (IDSR) designed to support innovation and design of IDSR systems. DSR and energy flexibility is becoming increasingly important as demand for energy grows.

The EV potential

EVs offer a potential energy resource, especially at peak times when the electricity grid is under pressure. Designed to power cars weighing two tonnes or more, EV batteries are large, especially when compared to other potential energy resources.

While a typical solar system for the home is around 10kWh, electric car batteries range from 30kWh or more. A Jaguar i-Pace is 85kWh while the Tesla model S has a 100kWh battery, which offers a much larger resource. This means that a fully powered EV could support an average home for several days.

But to make this a reality the technology needs to be in place first to ensure there is a stable, reliable and secure supply of power. Most EV charging systems are already connected via apps and control platforms with pre-set systems, so easy to access and easy to use. But, owners will need to factor in possible additional hardware costs, including invertors for charging and discharging the power.

The vehicle owner must also have control over what they want to do. For example, how much of the charge from the car battery they want to make available to the grid and how much they want to leave in the vehicle.

The concept of bi-directional charging means that vehicles need to be designed with bi-directional power flow in mind and Electric Vehicle Supply Equipment will have to be upgraded as Electric Vehicle Power Exchange Equipment (EVPE).

Critical success factors

Open standards will be also critical to the success of this opportunity, and to ensure the charging infrastructure for V2X and V2G use cases is fit for purpose.

There are also lifecycle implications for the battery that need to be addressed as bi-directional charging can lead to degradation and shortening of battery life. Typically EVs are sold with an eight-year battery life, but this depends on the model, so drivers might be reluctant to add extra wear and tear, or pay for new batteries before time.

There is also the question of power quality. With more and more high-powered invertors pushing power into the grid, it could lead to questions about power quality that is not up to standard, and that may require periodic grid code adjustments.

But before this becomes reality, it has to be something that EV owners want. The industry is looking to educate users about the benefits and opportunities of V2X, but is it enough? We need a unified message, from automotive companies and OEMs, to government, and a concerted effort to promote new smart energy initiatives.

While plans are not yet agreed with regards to a ban on the sale on new petrol and diesel vehicles, figures from the IEA show that by 2035, one in four vehicles on the road will be electric. So, it’s time to raise awareness the opportunities of these programs.

With trials already happening in the UK, US, and other markets, I’m optimistic that it could become a disruptor market for this technology.

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Navigating the commercial vehicle sustainability conundrum

By David Wilson, Business Development Advisor, NEOL Copper Technologies Ltd.

As road transport companies implement their environmental, social, and governance (ESG) strategies to ensure they are contributing positively to the planet and society while also being run ethically and transparently, they are faced with a conundrum.

With increasing regulatory and social scrutiny on carbon emissions, the transportation industry which is the second largest (20%) contributor to carbon emissions worldwide, faces growing pressure to meet the near-term net-zero targets, requiring an immediate move to being more sustainable.

The industry has recently undergone significant changes that have impacted the cost of running a successful business. Factors such as high fuel costs, increased labour expenses, and maintenance costs, as well as excessive costs to renew the fleet, have all contributed to this. Additionally, businesses now need to consider how to incorporate the future of electric and autonomous vehicles.

The future of electric vehicles

ESG strategies such as investing in fuel-efficient, low-emission technologies and adopting alternative sustainable fuel sources are essential to reduce carbon emissions, air pollution, and preserve natural resources, while protecting the industry’s long-term viability.

In order to make the industry more sustainable electric trucks will need to play a significant role. The migration to electric trucks is also an option for the fleet manager but there is presently a narrow choice of vehicles, an associated high procurement or lease cost, and a lack of public charging infrastructure.

Most commercial vehicle OEMs (original equipment manufacturers) now offer a range of electric trucks that are specifically designed for zero-emission deliveries. However, the use of heavy-duty electric trucks for long-range transport is not feasible yet, mainly because the batteries and charging power are insufficient. The large-scale adoption of electric trucks is going to take time, and it may not be until 2035 – emphasizing that the electrification of the trucking industry is around 10 years behind passenger cars in terms of electrification.

Transitioning away from fossil fuel is a complex challenge for fleet managers. It will take time for a complete shift of the 600,000+ heavy good vehicles currently navigating the UK roads to electric power. To address the issue promptly and enhance the fuel efficiency and sustainability of the current fleet, proactive measures are imperative to optimise their performance and curtail emissions immediately.

Addressing the sustainability conundrum

The vast majority of today’s commercial vehicles on the road today are powered by internal combustion engines (ICE) that run on diesel fuel. Since the first introduction of European exhaust emission standards in 1993, more stringent guidelines have been released every four to five years to reduce and eliminate harmful pollutants such as carbon dioxide, nitrogen oxide, hydrocarbons, and particulate matter from new vehicles sold in the EU.

 To meet the latest Euro VI (2015) emission standard, trucks are now typically equipped with diesel particulate filters (DPF) to capture particulate matter and lubricant ash, and selective catalytic reduction (SCR) technology to convert harmful nitrogen oxides to nitrogen and water, and exhaust gas recirculation (EGR) technology to lower the combustion temperature, reduce nitrogen oxides, and improve engine efficiency.

Euro VI engines are advanced and highly sophisticated systems that offer dependable and efficient performance. Together with the correct low-SAPS (sulphated ash, phosphorous, and sulphur) and low viscosity e.g. SAE 5W-30 engine lubricant, the fleet manager will benefit from reduced fuel consumption and warranted protection of the engine and exhaust aftertreatment devices (ATD).

As engine hardware has advanced, so has the lubricant technology. However, even with the latest low-viscosity oils, levels of fuel saving at 1-1.5% (compared to higher-viscosity oils) have not reached its full potential. Moreover, the continued use of metal-containing detergents and ZDDP (zinc dithiophosphate) antiwear components risk negatively impacting the performance and efficiency of the DPF, as well as the precious metal catalysts & sensors in the SCR units. This can lead to unplanned service and replacement of one or more of the ATDs, causing costly downtime for fleet managers.

 Euro 7 emissions regulations will be implemented in a few years, and it will require ATDs to perform as new for 200,000 km or 10 years. Therefore, the lubricant industry is facing a new challenge of lowering the levels   in engine lubricants even further.

Reducing unexpected downtime with technical lubricants

The fleet manager has access to high-quality diesel engines and lubricant technology, but they are concerned about unplanned mechanical issues due to the wear and tear of components from extended use. Additionally, the blockage of DPFs (which creates backpressure and increases fuel consumption) and the possible failure of sensors may lead to faults being registered on the truck’s OBD (on-board diagnostics) computer systems, still causing great concern for managers as they strive for maximum productivity and profitability.

Whilst the use of fossil fuels will remain crucial to power heavy-duty diesel engines, we must wait for further advancements in electrification. However, we can improve the lubricants currently being used to make commercial vehicles more efficient, with lower emissions and greater fuel economy. By doing this, we can reduce unwanted unplanned downtime for repairs or component replacements.

It is easy to see the clear link between reducing wear to increase the longevity of your machine assets. Additionally, by reducing friction, we can improve fuel savings which helps to increase efficiency, all essential steps towards acting more sustainably and making changes for a better future.

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Preparing for the Surge: Meeting the MCS Requirements of Electric Trucks

John Granby, Director of eTruck & Van, EO Charging and Erik Kanerva, Sales Director at Kempower

Auto electrification is moving at a rapid pace, with electric vehicles (EVs) going from a passion project for early technology adopters to the mainstream – especially when you consider the need to electrify consumer and commercial vehicles ahead of the government’s 2035 Zero Emission Vehicle mandate.

Electrification is also starting to play a vital role in public policy and commercial plans, leading to vehicle availability and a variety of improvements and increasing interest among commercial fleets’ prospective customers. As a result, all of the main car and van manufacturers have a respectable EV offering, and the eBus industry is well on its way to proposing a similarly credible offering for citizens.

Heavy-duty vehicle electrification has progressed slowly, but the pace has picked up over the last year, with several of the major truck manufacturers testing completely electric heavy trucks that are now near-ready to enter the general market.

This is a critical shift in the move towards net zero, given that heavy commercial vehicles account for around 25% of CO2 emissions from road transport emissions in the EU and approximately 6% of the region’s overall emissions. It’s a similar situation in the US, where medium and heavy-duty trucks account for around 29% of total road transport emissions or approximately 7% of the country’s total but make up fewer than 5% of all vehicles on the road.

Having clear goals and objectives in place for fleet electrification will be vital to ensuring the transport sector is on track. For example, Scania’s goal is that 50% of all vehicles it sells annually by 2030 will be electric. Despite Scania being the slowest into the market with battery electric vehicles, other vehicle manufacturers are following the same target, with Volvo Trucks setting itself a target for 50% fully electric vehicles by 2030 and the same with Renault, for example.

Meeting this ambitious goal will require the appropriate charging infrastructure in place so customers have the confidence to invest in the large-scale electrification of their fleets. That is one of the reasons why charging system manufacturer Kempower expects the commercial vehicle DC charging market in Europe and North America to have a 37% compound annual growth rate until 2030.

Trucks require substantial battery packs to provide a similar range as traditional engines, and having the right infrastructure in place to keep them regularly charged is certainly a key factor to consider when electrifying truck fleets. According to the European Automobile Manufacturers’ Association (ACEA), trucks will require up to 279,000 charging outlets by 2030, with 84% located in fleet hubs. By 2030, buses will require up to 56,000 charging outlets, with fleet hubs accounting for 92% of the total.

The Charging Interface Initiative (CharIN) is a global organisation that has been working on a standard for the rapid charging of trucks for several years. CharIN developed the Megawatt Charging System (MCS) concept, which serves as the foundation for the ISO and IEC standards which govern the design, installation, and operation of truck fast charging infrastructures.

The MCS is intended to standardise the quick delivery of enormous amounts of charging power to vehicles and provide stronger communication, which minimises downtime caused by unsuccessful charging events.

Customers who drive commercial vehicles follow particular driving habits. By taking advantage of the required break time from the hours-of-service restrictions governing their drivers, customers can travel further each day thanks to the increased charge rate that MCS offers. Better electrification of commercial cars is made possible by legislation that mandates that drivers take rest breaks. As a result, shorter charging durations to accommodate these breaks are beneficial.

The MCS will operate at up to 3,000A and 1,25 KV at its final development stage, delivering up to 3,75 MW of power when charging. With the backing of a significant segment of the industry, MCS is founded on an international consensus on technical standards. An internationally recognised standard is essential to promote harmonised solutions that reduce costs and boost interoperability without sacrificing safety and uptime.

Trucks on the highway are a key focus of the MCS, not only depot pricing. Large truck units operating long-haul routes and some smaller rigid trucks operating cross-border short-haul deliveries—such as logistics organisations operating deliveries between the United Kingdom and continental Europe—pay particular attention to this issue.

Most MCS charging occurs while drivers take breaks from their routes, but some depots may have a single MCS charger on site to do a flash charge if a truck needs to be turned around quickly. In order to balance this unit’s demand against other chargers on site, load management is crucial because it will require a power supply of at least 1 MW+.

Fleet operators should look to consider incorporating MCS into their whole charging ecosystem and solutions, regardless of whether they are thinking about how electrification will affect their fleet of vehicles on the road or how their depots will operate.

Adopting cutting-edge energy management technology solutions will enable effective fleet electrification, particularly at depots. Investing in effective load management technologies will be critical to maximising existing grid infrastructure capacity while decreasing the need for additional investments in generation or distribution capacity.

Investing in and deploying effective energy management technologies is the key to a smoother, more efficient shift for commercial fleet operators. They are critical in lowering energy expenses, both economically and environmentally.

Energy management solutions for charging electric fleets will also help maximise existing grid capacity, reducing the need to invest in new generation or distribution capacity. This will be an essential factor for fleet managers to consider as eTruck fleets expand and other commercial vehicle fleets, such as buses, increase demands on infrastructure.

With unprecedented energy and investment going into electrification, 2024 looks to be a pivotal year for picking up the momentum of progress around MCS in the logistics sector. If done right, it will create a shift of optimism in the market to accelerate the electrification of commercial fleets and promises to positively impact other sectors, such as marine and aviation, contributing significantly to reducing carbon emissions.

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