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Researchers from the Oak Ridge National Laboratory have figured out a way to change the dirtiest fuel out there, coal, into materials to help build batteries for new clean vehicles.

The new process turns coal into graphite, which is an important component in electric car batteries. Graphite is used in the anode, which is the negatively charged end of the battery.

While we hear a lot about various other battery materials, such as lithium and cobalt, those materials actually occur in relatively lower quantities in electric car batteries.

The most common material in these batteries is actually graphite (see an infographic here, though this is for NMC-type batteries), so it’s important to ensure that there is a large supply of this material anywhere batteries need to be built.

And one of those places is in the US – thanks to President Joe Biden’s EV policies, there have been hundreds of billions in investment and hundreds of thousands of jobs brought to American manufacturing, largely in the form of battery plants to ensure that vehicles with modern technology will be made right here in America. Those policies also focused on ensuring onshored or “friend-shored” critical mineral supply for battery materials, such as graphite.

But there’s a problem: a majority of the world’s graphite comes from China. While this isn’t necessarily a problem in and of itself, it’s always better to have multiple sources for any particular material, so that one entity can’t throw their weight around if they see an opportunity. And given the anti-China saber-rattling that a certain treasonous reality TV host regularly engages in, it’s entirely possible that global tensions could result in disruption of graphite supply chains, which could then jeopardize the aforementioned burgeoning US EV manufacturing industry (which that same reality TV host/convicted felon seems determined to ensure does not flourish).

So, in come researchers from Oak Ridge National Laboratories, who figured out a way to turn something that America still has a lot of – coal – into graphite.

It’s not too big of a leap, as graphite is a form of carbon and coal is also mostly carbon. But ORNL’s process takes impurities in coal and removes them to create material that is suitable for a battery anode.

Other methods to create synthetic graphite exist, but require more time, more cost and higher temperatures. The new process is estimated to cost 13% less than the old Acheson process, according to an analysis by ORNL researcher Prashant Nagapurkar.

In the ORNL process, if the electricity is green, the whole process is green. Especially because coal historically has this reputation as ‘dirty,’ a particularly important next step is to track emissions from the entire supply chain through the manufacturing process. This could demonstrate that it is indeed a greener option to manufacture graphite from coal.

–Prashant Nagapurkar, ORNL R&D associate

Better yet, the process doesn’t just work on coal straight out of the ground (which is where coal belongs and should stay) – it also works on coal waste like fly ash, the leftovers of previous coal mining efforts, of which there are over a hundred million tons of this hazardous waste strewn about the country. Thankfully, most of this is on the surface and won’t require further mining to get to.

Researchers say that the process could help to clean up that waste, and give it a use in powering modern vehicles. They estimate that the amount of waste in the US would be enough to provide around 30% of the graphite needed for EV batteries between now and 2050.

The process doesn’t need to be used only on coal, though. Project lead Edgar Lara-Curzio explained to Electrek how it could have potential applications on other sources of carbon:

However, while this particular project focuses on finding a positive use for coal waste, the electrochemical graphitization technology that we are scaling up can be used with other amorphous carbon sources. Once we get rid of waste coal – which would be a major environmental restoration achievement in itself – biomass (e.g., dead vegetation), petroleum, or other carbon sources could be used to manufacture graphite using the same process.

For example, methane pyrolysis, which can be used to produce hydrogen, generates solid carbon as a byproduct, which could be electrochemically graphitized for lithium-ion battery applications. This technology offers the benefit of strengthening domestic supply chains for graphite rather than relying on graphite mined and processed in foreign countries, many of which have much weaker environmental and worker protections.

The ORNL project was done in collaboration with Ramaco Carbon, a Wyoming-based company that owns multiple coal mines and provides coal for steelmaking. Ramaco says that its guiding principle is “coal is too valuable to burn.” Its focus is to find uses for coal that replace petroleum as a feedstock for various chemical and material processes at what it says will be a much lower cost.

Electrek’s Take

At first glance, this seems like some really great research. It onshores graphite supply, offers some scalable competition globally to diversify battery material sources, can be used on old waste, and is cheaper than existing processes.

But it also feels a little sketchy, because what we need to be focusing on is keeping carbon in the ground.

When we take carbon out of the ground, we sure do have a tendency to burn it, which means it ends up in the air, which is bad. Currently the air is 423ppm carbon, which is higher than the 280-350ppm range that represents a proper balance for current life on Earth. This means we don’t need to be taking carbon out of the ground, we need to be putting it back in the ground – and a lot of it.

So, any new process that might make us look at that carbon in the ground and think of another way that we might use it is suspect.

At least in this instance, it’s being proposed by a company that owns coal mines not for burning, but for finding other uses. So they might not use this as an excuse to burn more coal. Which is nice.

However, there has also been a significant push lately for coal-free steel, led by companies like SSAB in Sweden. Coal-based steelmaking (like that which Ramaco provides coal for) is linked to nearly a thousand deaths, $13 billion in healthcare costs and hundreds of thousands of lost school and work days annually in the US.

Given that this research was done in collaboration with a company that provides coal for that same dirty process, it gives us some pause. The process of turning coal into batteries will be cleaner than simply burning coal into the air, and graphite is potentially recyclable and usable long-term in multiple generations of electric car batteries, but it’s hard to shake the fact that coal is one of the most-polluting substances humans have available to us.

So, would we be giving ourselves more reasons to take coal out of the ground with this process? Even though researchers point out that coal waste can be used in this process, what if companies find out that it’s more difficult or costly to process the waste than it is to dig up new coal?

Given that we stubbornly refuse to impose the real price of this pollution on the companies that cause it, it’s entirely possible that coal mines will figure out a way to use this to justify their continued operation (especially whenever a republican administration, who have routinely shown themselves to be hostile to human health and too cozy with the coal industry, finds itself in charge).

So while new science is never a bad thing, this strikes me as something that we should keep an eye on. Cleaning up the environmental disaster of stranded coal waste is a fantastic usage, but lets not let this forestall the rapid shutting down of coal mines in this country.


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Huawei Maextro set to challenge Maybach, Rolls-Royce in China with 852 hp

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Huawei Maextro set to challenge Maybach, Rolls-Royce in China with 852 hp

Packing up to 852 hp and a cutting-edge technology stack developed by Huawei, Chinese luxury brand Maextro just revealed its latest entry into the Mercedes-Maybach EQS and Rolls-Royce Spectre segment of ultra-luxe EVs. Meet the all-new Maextro S800.

Despite a somewhat steady stream of new Chinese EVs that defy expectations and threaten to re-set the global order of performance cars, semi trucks, and just about everything in between, brands like Maybach, Rolls-Royce, and even Bentley have seemed relatively “safe,” in the sense that their value is based on something a bit less objective than lap times or kW/mile.

The new Huawei Maextro S800, first shown as a series of renderings late last year, seems to have found some of Henry Rolls’ secret sauce – and they’ve sprinkled it liberally all over the S800.

Huawei sparkles – literally

The shimmering, sparkly, fiber-optic headliner was pioneered by Rolls-Royce over a decade ago, pushing back against the more open and accessible glass-roofs that were becoming popular in the higher end market. Huawei goes a step further, adding similar, Swarovski-like shimmer to not just the headliner – but the door handles, the headlights, projections dancing around the car as you approach it in the street.

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It looks and feels special, in other words. And these cars are all about making their owners feel special. Different.

When Henry Rolls began work on his first US factory in Springfield, Massachusetts way back in 1919, there was supposedly a mantra that management repeated to the workers. It went, “every time you touch the car, you add cost. Make sure you add value.”

I’m not here to argue that Huawei is living up to the same maxim with the Maextro, but I am here to argue that this car’s bespoke, purpose-built platform doesn’t share any parts with a lesser offering from the Mercedes or BMW or Volkswagen lineup in the way that a Maybach, Rolls-Royce, or Bentley does. That may not mean much to you and me, but the people shopping six- and seven-figure cars, it might.

Those well-heeled buyers will get a choice of EREV or “pure” battery electric powertrains good for between 480 and 852 all-electric horsepower. 32 ADAS sensors including both radar and lidar compliment a suite of cameras analyze the road ahead and feed data to Huawei’s ADS road perception system, which is constantly adjusting torque distribution, suspension compression and rebound, and front and rear steering to deliver a tech-driven chauffeur experience that Huawei insists is second to none.

That digital chauffeur is also pretty handy when the weather goes sideways, too. Huawei says the Maextro’s sensor array can help it to increase the detection distance in rain, fog, and dust by 60% compared to the benchmark, while delay was reduced by 40%.

In the event a collision is unavoidable, the car can adjust its stance, seating position, raise the windows, and unlock the central control lock to enable outside help to open the doors. Following the collision, the Maextro S800 switches the redundant power supply and calls for help, as well.

Finally, reports indicate that the Maextro S800 supports the 800V high-voltage system in some trims, suitable for 6C charging, which means it can be energized with up to 390 kW of charging power, taking just 10.5 minutes to charge the 66 kWh battery in the EREV version (523 hp) from 10% to 80%.

The Maextro S800 will enter the Chinese in May this year with a price range of 1 – 1.5 million yuan (about $135–205,000 US).

SOURCE | IMAGES: Maextro, via CarNewsChina.

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Volvo Penta set to show off its new BESS subsystem at bauma 2025

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Volvo Penta set to show off its new BESS subsystem at bauma 2025

Volvo Penta will debut its latest modular and scalable battery energy storage system (BESS) platform for the off-grid construction and mining industries at the bauma equipment show – here’s what you can expect.

Best-known for its marine engines and gensets, Volvo Penta is the power production arm of the Volvo Group, specializing in putting energy to work. Operating under the tagline, ‘Made to Move You’, Volvo Penta is headed to bauma 2025 with a plan to keep construction, port shipping, and mining operations moving productively and competitively throughout their transitions to battery and (in theory, at least) hydrogen power.

To that end, the company will show off a job site ready version of the scalable and modular BESS subsystem concept shown last year.

Volvo says its new, modular BESS subsystem will enable other OEMs and third party system integrators to seamlessly deploy electric power to meet the ever-exceeding energy needs in construction and mining.

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“Our modular and scalable battery-electric platform is designed to support the electrification ecosystem—combining high-performance drivelines with the crucial energy storage subsystems for efficient charging and operation in construction and mining,” says Hannes Norrgren, President of Volvo Penta Industrial. “We want to meaningfully collaborate with our customers on value-added customization that will enable them to stay productive, efficient, and future-ready.”

The Penta substation at bauma will be built around the company’s “Cube” battery pack, an energy-dense solution with a favorable C-rate designed to make it easy for BESS manufacturers to offer more compact job site solutions capable of charging and discharging energy with high levels of speed and efficiency, enabling both stationary and mobile BESS configurations that can change and grow to meet the evolving needs of a given asset fleet or project.

A Volvo Penta-developed DC/DC unit converts the voltage from the Cube battery packs (600 V) into lower voltage (24 V) for powering auxiliaries and portable offices.

Electrek’s Take

BESS concept packed with Penta Cube batteries; via Volvo.

Volvo Penta has always provided power. Historically that’s been from combustion, but the company is looking ahead, developing products that will bring energy to job sites, tractors, and more long after the last ICE engine shuts down.

SOURCE | IMAGES: Volvo Penta.

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Rivian Upfit Program offers fleet managers custom solutions for its EVs

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Rivian Upfit Program offers fleet managers custom solutions for its EVs

Just days after Rivian announced that it would be making its iconic electric delivery vans available to anyone willing to pay for one, the company launched the new Rivian Upfit Program, offering a “one-stop shop” to help fleet managers put its EVs to work.

Launched in partnership with commercial vehicle heavyweights Ranger Design, Sortimo of North America, Bush Specialty Vehicles, Holman, LEGEND, and EV Sportline, the Rivian Upfit Program helps fleet buyers make the switch to electric by simplifying the ordering process and delivering an experience that more closely reflects the experience fleet managers get at dealerships.

Despite partnering with leading brands and launching into a well-establish market, however, the program’s web page seems largely aimed at people outside the space – even kicking off with an explanation of what upfitting is:

Upfitting is the process of customizing a vehicle in order to meet fleet, business, or individual consumer needs to tackle the job at hand. This work is done after the vehicle has been built and released from the factory, and can include everything from shelving modifications, flooring options, to sirens and flashers and much more.

RIVIAN UPFIT PROGRAM

The program was announced on LinkedIn with a number of photos indicating upfit options for Rivian’s R1T and R1S vehicles focused on lifeguard and roadside assistance duty, and Rivian’s van upfit with a HVAC/telecom style toolbox arrangement.

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No word on pricing or turnaround time.

Electrek’s Take

The general consensus around the Electrek water cooler is that the direct-to-consumer model offered by Rivian, Tesla, and even CarMax deliver a superior customer experience, I’ve consistently drunk the franchise dealer Kool-Aid, arguing that the industry-leading margins enjoyed by these companies actually indicate they’re giving consumers an objectively worse deal than they’d get in a more competitive dealer landscape.

That same competitiveness has led to talented fleet managers at those franchise dealers putting in the effort to get to know the needs of the businesses and buyers in their regions, to understand what upfit options makes sense for their local markets, and – crucially – what to stock for quick turnaround when their customers need it.

Rivian is hoping its upfit partners will do a lot of that heavy lifting for them, but my two cents is that if building cars is hard, building relationships is harder, and Rivian isn’t going to make a good first impression by talking down to its customers. If you think differently, let me know how I got it wrong in the comments.

SOURCE | IMAGES: Rivian, via LinkedIn.

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