The Incredible Sports Car Powered by Salt Water


Could a sports car operating purely on salt water be real? It may sound like a plot point in a futuristic film, but the reality is even more impressive. The inaugural model of the four-seat Quant e-Sportlimousine boasts an amazing 920 horsepower (680 kW), capable of accelerating from 0-60 miles per hour in a swift 2.8 seconds. Not only does this speedy car have a top speed of a staggering 217 miles per hour, but it has also gained approval for use across Europe!

No price tag has been announced yet, though it’s expected to be in the ballpark of $1.5 million. The anticipation is even higher for the second iteration of this vehicle, known as the Quant F, which promises even more enhancements.

The arrival of this innovation is thrilling news as it could dramatically decrease our reliance on fossil fuels. Adopting water as a fuel source offers a sustainable and eco-friendly technology, posing a serious challenge to the traditional oil and gas industries. While this isn’t the first attempt at water-fuelled vehicles, most predecessors have slowly faded away. So what makes this vehicle special?

The Mechanics Behind the Salt Water Car

The underlying concept is somewhat similar to that of a hydrogen fuel cell, but it substitutes hydrogen for salt water. The salt water flows through a membrane in two tanks, triggering an electrical charge. This generated electricity is stored in a ‘super capacitor’ and supplied to four motors housed inside the car, which is equipped with two 200-litre tanks. The vehicle can travel up to 600 km on a single charge.

To clarify, the car doesn’t directly use salt water for propulsion. Instead, it employs tanks (or batteries) of charged electrolyte fluids, essentially salt water, to store potential energy in a highly efficient manner. You can get a detailed explanation of this in the video linked below.

The NanoFlowcell technology opens up exciting possibilities that could redefine our perception of energy at large. Salt-water cars are just the tip of the iceberg.

In the words of NanoFlowcell AG Chairman of the Board Professor Jens-Peter Ellermann, “We’ve got major plans, and not just within the automobile industry. The potential of the NanoFlowcell is much greater, especially in terms of domestic energy supplies as well as in maritime, rail and aviation technology”.

The Prospects of the Quant e-Sportlimousine

Despite the numerous alternative-fuel inventions that have come and gone, it appears that the Quant e-Sportlimousine has real potential.

The designers argue that their NanoFlowcell system can deliver a significantly higher range than traditional electric car batteries, and they’ve already made significant advancements. The upgraded model, the Quant F, boasts a range of 800 kilometers (around 500 miles) when fully charged. It can achieve a top speed of 300 km/h (186 mph).

The car features individual motors for each of its four wheels, a two-speed transmission, and horsepower of up to 1090 hp. The ionised fluids are stored in two 250-litre tanks.

A Look Back at Previous Eco-Friendly Car Inventions

In the past, we’ve seen a slew of inventions claiming to revolutionize the automobile industry, ranging from solar-powered cars and flying cars to water-powered cars.

In 2008, a Japanese company introduced a water-powered car that could operate on any type of water. The technology involved breaking down water molecules into hydrogen and oxygen components. The car used the hydrogen for fuel, while the byproduct was just water vapor.

In theory, it was an ideal fuel. The hydrogen generated via ‘membrane electrode assembly’ (MEA) was highly pure and effective as a fuel. However, despite the initial enthusiasm, the vehicle never made it to production, and the entire operation has since been dissolved. Although a lack of funding was cited as the reason, the incident has sparked numerous conspiracy theories. Did the government suppress it? Or was it just a hoax?

The Hydrogen-Fuel Cell Debate

Percival Zhang, an associate professor of biological systems engineering at Virginia Tech, has led a research effort enabling efficient extraction of hydrogen from plant materials. The team has managed to generate large amounts of hydrogen from xylose, a simple sugar found abundantly in nature and a component of plant cell walls.

While their technique outperforms previous methods in efficiency, there’s a significant obstacle when considering hydrogen as a fuel source for vehicles.

According to Steven Chu, former Energy Secretary, “We don’t have a good storage mechanism yet. Compressed hydrogen is the best mechanism but it requires a large volume. We haven’t figured out how to store it with high density. The fuel cells aren’t there yet, and the distribution infrastructure isn’t there yet. So you have four things that have to happen all at once. And so it always looked like it was going to be the distant future. In order to get significant deployment, you need four significant technological breakthroughs. That makes it unlikely.”

The Role of the US Navy

In addition to private companies, the US Navy has also explored salt-water as a fuel source. The logistics of refueling Navy vessels at sea can be incredibly expensive and pose a national security risk to sailors. The amount of fuel required is staggering:

“In Fiscal year 2011, the U.S. Navy Military Sea Lift Command, the primary supplier of fuel and oil to the U.S. Navy fleet, delivered nearly 600 million gallons of fuel to Navy vessels underway, operating 15 fleet replenishment oilers around the globe.”

A shift to salt-water energy could revolutionize Navy operations.

Dr. Heather Willauer states, “In close collaboration with the Office of Naval Research p38 Naval Reserve program, NRL has developed a game-changing technology for extracting, simultaneously, CO2 and H2 from seawater. This is the first time technology of this nature has been demonstrated with the potential for transition, from the laboratory, to full-scale commercial implementation.”

In conclusion, while this vehicle isn’t precisely powered by salt water but rather ionised storage packs, it certainly represents a promising development. The approval for its use on European roads is an encouraging sign. If this technology comes into fruition, it could be a true game-changer. It’s a development worth keeping a close eye on.

We’d love to hear your views on this exciting development. Please feel free to share your thoughts!

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