People down here acting like $5 to keep 25,000 lbs in the air for 30 minutes is not a milestone worth announcing.
"Be perfect NOW" π€£
This is a most excellent place for technology news and articles.
People down here acting like $5 to keep 25,000 lbs in the air for 30 minutes is not a milestone worth announcing.
"Be perfect NOW" π€£
Because they didn't. And anyone that is capable of critical thought can easily take the few numbers they provide in the article and do some simple calculations.
They claim the motors pull more than 1mw of power. So using 1 mw for 30 minutes is 500kWh. That means they paid 1 cent per kWh. (Spoiler. They dont)
And nowhere, does it say the plane weighted 25000 pounds. It says it "can exceed" 25000 pounds. But by no means does that mean that's what it weighted in this test.
The most likely scenario is that the plane was bare minimum rather than maximum. I doubt even passenger seats were installed.
Time to pass those savings onto the ~~consumer~~ shareholders!
Heart Aerospace is claiming that the hybrid-electric ES-30 could reduce airline costs of operating regional aircraft by more than 40 percent.
How much you want to bet that this 40% savings will never make it to the customers' pockets?
Even if they don't make it, the whole fact that the aviation industry goes less CO2 intensive would be a good win.
This seemed intuitively wrong to me (like, way too low a cost), but: 25,000 pounds moving 100 mph is equal to 11,331,007 J of kinetic energy. Since 3.6 million J equals 1 kWh and 1 kWh on average costs $0.17, that means you could accelerate 25,000 pounds to reasonable bare minimum flying speed for about fifty cents (not considering efficiency of the machinery). My mind still can't process this, but math is math.
On the other hand, looking at it from a potential energy perspective it's a bit more expensive. 25,000 pounds at a cruising altitude of 10,000 ft. (still quite low from an airliner perspective) is about 339 million J, 94 kWh or about $16 -- the cost of lunch at MacDonald's.
Since a plane requires the most thrust at takeoff, you could use ground-based catapults to get the plane to takeoff speed (or faster even) and then you could carry smaller batteries and propelling machinery. For extra fun, you could have landing planes snag a wire and use their momentum to accelerate a plane taking off.
To save even more weight, since you're going airport-to-airport you could leave off the landing gear and just have the planes come down on a bouncy trampoline-like surface. If you think that's batshit crazy, the British actually experimented with this idea for their aircraft carriers in the 1950s.
Edit: to make these numbers more realistic I'm going to assume something like a 737, which can weigh something like 150,000 pounds fully loaded (this includes fuel but you'd need batteries instead for an electric plane). Getting this to a 150 mph takeoff speed would take about 100 million J (getting it then to a cruising speed of 500 mph would be another 233 million J, but that's pretty minor compared to the other costs). Climbing this plane to 30,000 ft would take 6.1 billion J. Resisting a drag force of 5000 pounds (about what a 737 experiences at cruising speed at 30,000 ft) for 500 miles (the distance from Cleveland to New York City) would need 17.6 billion J. Assuming landing is free (fuck TANSTAAFL) that means a typical trip needs 23.8 billion J or 6618 kWh or $1125. Assuming a real-world efficiency of 25% means the actual cost would be $4500 (which is in the ballpark of what jet fuel costs). Assuming 200 passengers, that's $22.50 per person. Not exactly "$5 of electricity" but surprisingly small.
Feel free to check my math, my brain hurts.
Since a plane requires the most thrust at takeoff, you could use ground-based catapults to get the plane to takeoff speed (or faster even) and then you could carry smaller batteries and propelling machinery.
Don't you dare talk about catapulting using electric technologies in America though. Steam only! πΊπΈπ½π¦ π
There are many who have suggested replacing the fuel intensive takeoff with electric ramps, similar to what the do on aircraft carriers. The problem is most people could not handle 3-4 gs.
But, there could be a detachable battery pack that disconnects after takeoff to fly back to charge as a drone.
I didn't say which type of catapult. I don't need ICE showing up at my door.
I fucking hate everyone and would love to subject you fucks to 4g of pain taking off with a stupid catapult system. Nice math.
The Navy is stupid.
One important caveat to this. It costs less than 17 cents to generate 1 kwh. Closer to 3 cents really. But that's the cost of making the electricity, getting that electricity to a house or charger or what have you costs more. Since energy is a for profit industry they tack all the logistics costs to the client buying the electricity.
So your math is spot on but I fear the amount of markup on the electricity will be massive especially since it's for a business let alone an airline.
Is there no simple anymore? Plane A went this far on 5 dollars electricity. Plane B went the same distance on X dollars worth of jet fuel. I want to know the distance travelled and I want to know what "X" is.
The site for the plane manufacturers says they have a max range of 125 miles.
So this is practically useless for flights. It's faster to just drive 125 miles in an EV.
Well, the data we do have is that the flight was just under 30 minutes and very likely under 100 miles.
From the Wikipedia on airline fuel efficiency:
The worst-performing flights are short trips of from 500 to 1500 kilometers because the fuel used for takeoff is relatively large compared to the amount expended in the cruise segment, and because less fuel-efficient regional jets are typically used on shorter flights.
In the example values table, the most efficient plane for a 560km trip burns 0.92 kg of fuel per km, so doing some rough math and assuming the electric plane travelled 100 miles, that would be roughly 148kg of fuel, or 50 gallons (190L).
At current jet fuel prices ( $3.76/gallon ) that's about $188 US in jet fuel as a rough estimate. It's unclear if the test flight went up to full altitude or if the plane was at full weight, so a fair comparison might have used even half as much jet fuel.
Edit: From some of the other comments, it seems like they might have only considered flight time as cruising time, not takeoff and landing, so my numbers will be quite far off if that's the case. My gut feeling is that this is probably the case, because this seems like too big a difference otherwise.
$5 of electricity to lift an airplane 10,000 feet definitely seems low.
If you want to be really smug, you could say a gas powered plane requires $0 of fuel to glide for 30 minutes
Now that you mention it, they specify a maximum total weight of 25,000 lbs, so at 100% efficiency it would take 339MJ of energy to lift the fully loaded plane to 10,000 ft. That can be converted as 94 kWh, and at the current cheapest electricity price in the US of $0.1235/kWh, that's $11.63
Therefore, it is literally impossible for this plane to reach 10,000 ft for $5 fully loaded.
$5 for 30 minutes in the air. pick any speed you want. it doesn't matter. avgas and jet fuel don't compete with $5.
I pick 30 minutes at Mach 7, here's your $5 Canadian and please get out of my way, I do intend to board now.
If they can fly a small airliner for 30 minutes for $5. Either there's a whole lot they're leaving out. or they're not paying anywhere near what I pay for electricity.
They say the engines delivered more than 1 megawatt of power. Cool, so 1 MW over 30 minutes. That's 500kWh. Which means if they paid $5 for it. They paid 1 cent per kWh. Now i don't know about you guys. But i sure as hell don't pay 1 cent per kWh.
they also dont specify how many kwh they used. which is why i assumed a sustained 1mw of power. they also dont say how much the plane weighted. only what it could potentially carry. that doesn't mean that's what it weighted in the test.
don't get me wrong. cool stuff to fly electric planes. but i can't help but feel incredibly sceptic when they leave out a lot of numbers while making the insane claim that they only used $5 worth of electricity.
It just occurred to me that with the recent advancements in cargo-container-sized nuclear reactors, they would excellent fit to power aircraft due to their high energy densities. There were attempts at nuclear-powered aircraft in the past using older technology, but IIRC they irradiated crews and were primarily for bombers carrying nukes that would supposedly need to be in the air continuously for days at a time.
i just got back from a week in bali. we rent a mini ev 2 person car to get around and in the span for the whole trip we literally spend $0 because we charge them off the wall plug of the villa we stay at
but if we want to be pedantic the car is Wuling airev and iirc it has 17 kwh of battery. that is quite enough for us for the whole week, we only need to charge it once at 60%. so lets say its around 7 kwh. in Indonesia a kwh cost around $0.1. so for a whole week it only need less than a dollar for 'gas'
This article is idiotic.
$5 cost. 25,000 pounds. BUT OVER WHAT FUCKING DISTANCE?
$5 gets me 23 miles in my Delica. It gets me 100 miles on my motorcycle. It gets me 30 miles in my Porsche 914. But the article says nothing about distance.
The plane has a max range of 125 miles.
More US electrical bullshit to swindle investors.
Thanks. That's what I figured. To date, I think only ultralight aircraft that would normally just be high altitude vehicles have viably used electricity for long distances.
Literally the first sentence:
The first flight of the largest battery-electric aircraft to take to the skies lasted nearly half an hour while costing just $5 of electricity.
Can your Porsche 914 fly for half an hour on $5 of fuel ?
I'm guessing it mostly flew in circles, since it's a test flight that happened "at Plattsburgh International Airport" instead of between two locations. 27 minute flight, whatever that's worth.
$10 an hour still seems really good though right? I'm not sure how much Airlines pay currently for fuel though.
Only article I could find was this: https://flyinginsight.com/2026/02/14/how-much-does-it-cost-to-fuel-an-airplane/
On average, a 737 or A320 consumes between 2,500 and 3,000 litres of fuel per hour
Take a typical two-hour flight, such as Amsterdam to Barcelona. The total fuel burn would be approximately 5,500 litres. At a reference price of $0.59 per litre, that translates to around $3,200 in fuel costs.
So that's $10 an hour down from $1600 an hour? Seems decent.
The X1 demonstrator is more comparable in weight and power to an EMB 120 Brasilia, a 30-seat turboprop. Forum chatter seems to indicate those burn around 1000 lbs per hour, or $335/hr in fuel using the $0.59/liter price you mentioned.
Dropping down to $10 is still pretty decent lol
Oh boy... So, they took off from a test facility adjacent to Plattsburgh International Airport. I don't see it stated, but I give it 98% they landed where they took off. Plattsburgh has some of the lowest residential and commercial electricity costs in the country, so that $5 nets them about 110kWh of juice.
They also reached a maximum altitude of 1,100 feet with a plane that weighs in excess of 25,000 pounds. Lifting 25,000 pounds up to 1,100 feet takes 37 million joules of added potential energy, or a bit above 10 kWh.
The entire remaining 100kWh of energy budget is the equivalent of accelerating the 25,000 pound aircraft up to 252 meters/second at perfect efficiency in a vacuum. This flight was not going very high, and it was not going very fast.
If the economics of their hybrid idea work out, it'll be fantastic, but the attempt at marketing over transparency here doesn't fill me with optimism.
Thank you for that.
Good and as battery technology improves, EV aircraft would be ideal for short commuter hops.
Dude, I'd take short hop flights all the time if they end up being that environmentally friendly.
In other words the Us wonβt use this technology because it hurts the oil companies pockets
Every time I hear of an all electric aircraft of any size, I always wonder what they're going to do about landing weight.
Every modern transport category jet has a higher takeoff weight than landing weight, because of the simple unavoidable fact that landings are rougher than takeoffs. Taking off, the load gradually comes off of the landing gear, on landing it's suddenly applied. Jets burn tons, literally tons, of fuel enroute, so they're considerably lighter on approach. It's why aircraft have dump valves to jettison fuel overboard in case of forced landing early in the flight.
Batteries don't get lighter as they're discharged, so...?
I did my best to find any technical data about the flight. Couldnβt find any actual numbers. FWIW itβs not intended to be a standalone method of powering the aircraft for commercial use; they plan on making it a hybrid, which makes far more sense as far as range and payload are concerned. Best guess a 25000 lb aircraft like this will probably cruise around 120-150Kt at a nice, slow, efficient airspeed for a test like this. So maybe a 40-50 mile flight because βair timeβ probably started as soon as they lifted off.