Two-minute battery changes push India’s delivery riders to switch to e-scooters
theprint.in
theprint.in
Seems like a really great option. I would love to have that in my city. We have dockless bicycles and scooters but a more capable and personal option would be awesome. I'd sign up in a heartbeat.
Sadly my city planners do not seem aware of motorcycles as a transportation option. We have no laws or infrastructure to encourage them or take advantage of the benefits. At a state level we at least get to cut ferry lines, but that seems to be the only perk.
Indian users are very price-sensitive and there are extensive discussion networks running the numbers on these. They won't use these services unless it makes financial sense.
- No maintenance or upgrade cost
- Low upfront cost
- Low commitment
I just checked and the Ninebot Max is $949 on Segway's website and that's got a smaller battery than most ebikes. And I'd be willing to be that that scooter would also break down just like mine.
Bay Wheels is $159/year and about $2.00 a ride, meaning you would need to ride 520 times that year before it became cheaper to own. Also for regular bikes it's free each ride.
That's ignoring that decent e-bikes are more expensive than $1200, the stress of having to lug around and securely park your property, the depreciation of the batteries, as well as any insurance & deductible costs you'll encounter for when (not if) it gets stolen.
It's hands down better to be able to hop-on and -off wherever you want with an ebike than to deal with owning one in SF.
Looks like its $159 per year, so $13.25 per month. Then, your rides are $0.20 per minute for the first 45 minutes, $0.40 per minute thereafter, and an additional $2.00 fee for not parking at a station - stations which aren't always conveniently located.
I own an e-bike now that I ride longer distances - that a Bay Wheels bike won't make anyways but I don't consider that a fair comparison. Based on my old commute from the Mission to downtown 5x weekly:
- 1.5mi/12 minutes each way. $0 base + $2.40 assuming optimality.
- Hub on one side, no hub on the other, average $2.00 extra there, $0 extra back.
- Monthly fee assuming 40 rides per month is $0.33.
So for this commute alone we're talking $7.46 per day, $149 per month or $1788 per year. Add on a few grocery runs, grabbing drinks with friends, lunch runs, not wanting to park at a hub when you're in a rush, and we're probably in the low-to-mid $2000 per year price range if you really buy into it.
A VanMoof X3 is $2448 (or $88 per month) [2] It would pay itself off in like 14 months, or you can save 37% on the monthly payment vs Bay Wheels. Now you have something with almost a 100 mile range, a much better ride, that you can park anywhere. If it gets stolen, they'll also send out a team to pick it up via its onboard GPS, and fix it up for you.
My point isn't that you should or shouldn't get a VanMoof X3, it's just that the pricing isn't exactly a slam dunk in favor of Bay Wheels.
>Hub on one side, no hub on the other, average $2.00 extra there, $0 extra back.
This is difficult to believe that it isn't a bad faith argument to pad a comparison, because hubs are littered across downtown and the mission. [1] It's highly improbable that there aren't any hubs near either.
>- Monthly fee assuming 40 rides per month is $0.33.
Which is bad math. Riders use bay wheels more, because you can take a bike to a concert or restaurant or park and not worry about parking it and/or bringing it home later. See the part above about not having to worry about parking an expensive asset. You compare the variable costs of breaking even when determining which of two methods is cheaper, not try to pad it by dividing up fixed costs.
>I own an e-bike now that I ride longer distances - that a Bay Wheels bike won't make anyways but I don't consider that a fair comparison
Then you shouldn't be making declarative statements about a $1200 always being cheaper than something like Bay Wheels, because it is cheaper for the vast majority of people living downtown SF.
Ok but, I used my actual commute when figuring this in. It was 3 blocks away from my office and a block from my house. I wasn't really looking to walk 4 blocks each way out of a 12 block commute - at that point I could just walk, no?
There's also no hubs in Potrero, Russian Hill, Nob Hill, Telegraph Hill, Chinatown, Japan Town, Polk Gulch (all places I'd call 'downtown') and none west of the mission. Coverage is good, don't get me wrong but it's not perfect for everyone.
> Which is bad math. Riders use bay wheels more, because you can take a bike to a concert or restaurant or park and not worry about parking it and/or bringing it home later.
Ok, but we're talking $0.33 down to what $0.16 per ride? Doesn't really matter because that's covered by the first minute of any additional ride. That'll increase your daily costs a lot - and make it much easier to justify owning your own.
Re: fixed costs, at $2000 per year for Bay Wheels, you can actually afford to get your $1000 e-bike stolen twice per year and still break even - and have your VanMoof with built-in theft protect, GPS and recovery team stolen every year and still break even.
> Then you shouldn't be making declarative statements about a $1200 always being cheaper than something like Bay Wheels, because it is cheaper for the vast majority of people living downtown SF.
Except I didn't say that. It's definitely not always better. I'm a big advocate of bike share services, and I've used them for years. Sometimes it is cheaper, some times it isn't. I'm not the gp.
https://old.reddit.com/r/cycling/comments/kon8hr/i_just_had_...
They have 1-hour and 1-day options, but I was told by CS (after) that the 1-hour pass only includes 30-minutes of actual riding. Uhg.
I might buy one, because they are so fun, but I probably won’t rent one again.
I’m talking stand on scooters vs the sit on motorcycle type ones.
Bay Wheels bike annual subscription is worth it but only if you use them regularly (like commuting/weekends).
Theoretically a great thing, but at least one of the parking zones was slightly off, and the scooter would only lock in the middle of the road!
Same issue in some other parts of town to a lesser extent, like on some parts of hollywood blvd. Gee, why is my scooter coming to a stop in the middle of a busy intersection? Oh, some local assholes must have complained to the city councilman and had this virtual bear trap installed in the middle of a busy road, lets hope I don't die trying to wheel this thing off.
In Southampton it was more like "you can only park here" or "you can't scoot in the public parks" or "this is a hospital zone so you're limited to half speed". That said, it was only a pilot, and I can see the exact same thing happening down the line.
Other than people with cars complaining that there now isn't room for their one giant single-occupant vehicle compared to parking for 5-10 bikes and scooters.
It's a very different thing than owning.
Edit: I want to be clear that this is about the economics and ease of owning vs renting, not the particular prices. Lyft bikes have memberships+rental fees or just rental fees, and they can be pretty expensive, but so can buying an ebike.
How often do I do this? Probably once a week. Bike out to the beach, walk or bus back. Bike to the grocery store, lyft back. Go on a walk after work, not have to worry about getting home.
How easy is it too find one? Pretty easy. There are docks everywhere, and an app that shows me where bikes are left.
Can't find that link, but here's some similar cases: https://www.kcrg.com/2021/06/03/teen-arrested-for-throwing-e... https://slate.com/technology/2018/12/electric-scooter-bird-l...
The only downside is that as people return to the bay, the e-bikes (and bikes) are going to become more and more scarce at docks.
I do a lot of commuting on my ebike, but their are clear situational benefits for the alternative.
Now, you may not find that list enough to offset the downsides compared to buying your own, but judging from their seeming success, I'm not the only person that's done the math and intentionally chooses renting a scooter as-needed.
But enough about Los Angeles
Kymco has their own design and partnerships, but are way behind now on reach and marketshare.
The batteries are swapped at location and transported to and from the nearest chargestation. You have to take a photo when entering and leaving the scooter through the app. An investigation will be started by the issuer when a scooter got damaged. The last driver will not be responsible if it can’t be proved that the driver did the damage.
Both leading battery swap standards in India are from Taiwan. One is GoGoRo as you said, and another is Ionex.
Ionex based scooters usually have more in the roadgoing department, and GoGoRo more in internet/app features.
GoGoRo is founded by a Taiwanese guy who worked for a famous company in America, thus he is using his fame to get big money from financial funds. Manufacturing is mostly OEM.
Ionex is made by an established player — Kymco (https://www.youtube.com/watch?v=lDNKQ18-QYY,) and has more firm standing in the industry. They have their own parts, and share service centres with their petrol scooters. The later is a very big thing in India, and South Asia in general.
The biggest impediment for both turned out to be India road. Taiwanese scooters with tiny wheels don't fare well anywhere outside of big cities.
Rural Indians really prefer classic motorcycles — cheap, repairable, no exotic parts. The "app" things doesn't sell at all either. The only useful function for many on smart scooters is a theft alarm + GPS.
I guess you might be able to scam the rechargers themselves if you want to "return" a knock off. But if I were them I would put tamper resistant asset tags on my batteries and ensure that whatever battery im taking back is the same as the one I handed out.
So the central server will reject the battery if it can't authenticate with the proper RSA private key, or that key is already online somewhere else.
Just like creditcards with chips are validated each time.
Bad actors can spoof the battery charge reader, but it's much harder to spoof the juice out of the charger.
You have the charging electronics which will tell you very quickly when a battery is dead, and you know which subscriber gave you the faulty battery. Sure faulty batteries can happen naturally (and accidentally), two faulty batteries though should be statistically enough to trigger an investigation from the company.
Ideally this would be coupled with lax device receipt keeping so while the company could tell that one of these thousand customers that used the kiosk that day returned the faulty battery it'd be hard to pinpoint a specific wrong doer.
That said, it feels like the margins on this would be low enough to make it not worth the effort.
Most kiosks have 30+ batteries, so each has a while to recharge before being 'summoned' again.
I mean it can be scaled up so that one of these stations has hundreds of batteries, an active cooling system etc etc, so it's a fixable problem.
60 km actually goes quite far in Taiwan, which isn’t a very big place compared to eg the United States. Gogoro has an extensive network and you only range limited in rural areas like the east coast or the central mountains.
The loudest motorcycle driven at normal speeds was an electric one.
I really hope they can bring that noise down further.
https://www.youtube.com/watch?v=VD4s92gwlMY
It has to be either the planetary gear set or the chain - none of the gears are helical, so they're bound to be noisy. According to the specs the motor is a permanent magnet synchronous motor, which is normally mostly silent.
Just noticed the Gogoro swap logo in the video. Looks very similar to the Arduino logo. Only difference being the +/- positions are swapped.
The other improvement depends on battery technology though.
I think the parking garage management gets to choose where to locate these stations, and typically they make it maximally convenient for people who are parking their scooters in the garage, without any consideration for people who are just stopping by.
The app does give you a marker on a map and a photo of the the station, but it's often not enough.
I seriously ponder getting one as it‘s a nice match for a city apartment with no charging ports.
The channel is mostly on city planning that supports walking and biking (rather than motorcycles) but the Dutch bicycle in the snow because they have an infrastructure that supports it.
https://www.youtube.com/watch?v=Uhx-26GfCBU&list=RDCMUC0intL...
Of course they don't have mountains which is the issue where I live.
Add the sense of entitlement of large 4WDs to complete non-enforcement of road rules protecting riders of both motor- and acoustic bikes by the Police, and you've got a deadly mix going.
There is mesh synthetic safety gear that's quite good these days (I'd imagine it'll eventually disintegrate on a long slide, but will at least help with impact. Also road rash typically isn't what will actually kill you). It also comes in colors that will reflect the sun a little more than black, which is still the most popular motorcycle clothing color by sales.
I used to ride a lot in Ocotillo Wells where it would hit 110F in full safety gear, so it is possible. Helps when you're going fast enough to get wind chill.
If more car owners would at least sometimes switch to the smaller option, it would make life easier and safer for 2 wheel drivers.
This is not likely though, so I hope for ebikes and more cycle lanes and car free zones in cities, to make it more attractive.
I truly do want everyone to drive them for all the benefits they bring but I also truly don't want a single person to die like that, so I no longer recommend that other people buy them (not even a scooter for short distances).
IMO once You factor for speed and environment (how much time will any of those electric city scooters ever ride on highway and/or above maybe 50-60kph?), You'll be left with two causes of accidents - rider who loses control (exponentially less deadly with reduced speed) and scooter vs car crash on intersections / in lanes. In this case, much as those crumple zones work well for whoever is inside the metal box, they also add extra mass / energy to the body that's being deformed on the outside...
There were rumblings in Australia about making high-viz clothing a requirement but I'm not sure if that actually got passed or not. From the data I've seen it makes nearly as much of a difference as wearing a helmet vs not.
Why do you need that on your 25cc scooter? Caus it looks cool. What colour would you like that in? Light absorbing Batsuit black please.
Personally I mitigate this by stopping at the edge of the lane and keeping an eye on my mirrors. If I am going to get hit I can at least escape between the lanes.
In civilized countries filtering between lanes of stopped cars is the norm. This gets the vulnerable two-wheeled vehicles out of the danger zone. In the US that is illegal almost everywhere. Even if it was legal drivers would have to be educated to not use their vehicles as weapons, something that is surprisingly common.
But, for anyone else reading, one of the few places filtering and lane splitting in general is legal (up to ~10mph speed difference) is in California.
There was extensive discussion on a recent episode of "Highside Lowside" (Revzilla's Podcast) about whether lane splitting at speed increases or decreases safety, complete with stats and personal experiences. (In their opinion it comes down to the skill of the rider.) Filtering when cars are fully stopped is likely safe and less contentious.
Hundreds of cities and countries have infrastructure suitable for two wheelers. Especially when you are within the city limits. Cities in India it is extremely common to ride two-wheelers and it is generally safer to ride scooters. Most delivery drivers use motorcycles - millions of them in fact.
American streets are designed poorly, see stroads and all that. If we want motorcycle fatalities to go down, we need to strive for all fatalities to go down.
Yes 5.5k riders died last year, but 42K car drivers died. Yet we're fine with that because "well per mile that isn't that bad" 42K isn't a good number and there needs to be greater discussion surrounding the poor driving conditions created by poor planning.
Those things have some good acceleration and are a blast to drive.
Cars have materials designed to deform in predictable ways to absorb shock and smooth the deceleration process in case of an impact.
Motorcycles have absolutely nothing of this sort. Body airbags can help a lot, but are still far from the safety that a car offers.
Personal opinion: motorcycles, as a means of urban transportation not sports or leisure, are for people who don't have an option and don't value their lives highly enough.
> "We were unable to identify any randomised controlled trials of parachute intervention"
In terms of organ donation, that is because an astonishing amount of people don't wear a helmet when on a motorcycle or wear one of those fashionable open-face helmets.
Many people are also unaware you can get airbags for motorcyclists (https://www.revzilla.com/motorcycle/alpinestars-tech-air-5-s...). This is obviously a thing more for first world riders and they are expensive but are very effective at preventing any injury you can't walk away from (assuming you also wear a proper helmet like I mentioned).
I read the article and thought back to the demo [1] Tesla did years ago of automated battery swap. Tesla did it as a stunt; they publicly stated that they didn't plan to market that.
As a Tesla owner, I don't want battery swap as long as I am paying for the battery as part of the price of the car. I'd be worried that my brand new max-range battery would be swapped with old worn-out batteries, and I would feel like I lost value.
However, on road trips, I would much prefer a 5-10 minute battery swap over supercharging (which they no longer give me for free). The electric car experience would essentially be the same as the IC experience.
If Tesla (or someone) sold me a car without a battery, and I had to buy a battery "subscription", I might go for that. I'd get a huge discount off the base price of the car, and now I wouldn't be concerned about swapping since it's not my battery. I'd do my normal day-to-day as usual, and on road trips or unexpected usage, I could swap out in minutes. I could get on board with that.
[1] https://www.youtube.com/watch?v=H5V0vL3nnHY ed: added video link
For it to work, as you said it is a subscription model for the battery.
It requires a very large fleet of vehicles that all use a standardized battery size. That means not offering lower priced vehicles with smaller battery packs, since you're just able to swap it anyway. And it means not having higher-end larger vehicles with larger packs, since now they aren't standardized.
That also means you are using more battery cells than needed for some customers, and you need more total battery packs in circulation as well.
So it can work, but there are definitely tradeoffs to vehicle design, and I doubt the US market could come together to create a standard used by a large enough percentage of the fleet to be worthwhile. We have some brand segmentation in DC fast chargers, but imagine if Chevy and Ford and Honda all had different battery swap stations. And within brands, can an F-150 use the same battery pack as a Ford Escape?
While currently, thr stations have to be manned, there is potential for this to be completely unmanned drivethrough where you take the car and never have to get out of it, you pay and the battery is changed for you in 3 minutes (which also looks like it could be improved, and that could come down to less than a minute).
I have no doubt that this will absolutely kill the competition.
Also, it doesn't have to be one standard size. A standard interface with a few standard sizes will work just fine.
Charging is already at the level it adds only 10% to the road trip time compared to an ICE car (see Bjorn Nyland's 1000km tests).
A battery in a car is a critical piece of mechanical equipment, that lowers CG, forms an important part of the stability calculations etc. As such, the fixtures that hold a car battery in place are much more rugged and designed so.
Making that a swappable design adds more weight to an already overweight car (for example, having a rugged frame casing that has a removable batter inside)
(Probably gleaned from Munro Live on youtube. It might have been another mfg, like Rivian or BYD.)
We need the EV transformation to make sure people are more economically sustainable. A handsome side-effect of it would be the dramatic drop in air pollution given the population density in India
Wouldn't the same factors like state tax, central tax, political interference affect battery charges too? Or none of them matter?
In this case, the battery swapping robot is you.
The practicality of battery swapping decreases exponentially as size and weight scale. The cost of building a battery swapping network for western-car-sized battery systems, even once solving the engineering elements (which are manageable), are likely a non-starter. Especially if the other principle technology rival is fast-charging stations.
How much added convenience is required to justify huge mechanical systems with many wear components and large maintenance costs over replacing a few charging cables every X months? Lots.
Better to bring the batteries to charge the cars when they need it: https://www.sparkcharge.io/
Instead design in a space for a secondary battery, maybe 40% the capacity of the main battery. Make those standard and swap-able.
Now, you can use the car as ordinary in either the one-battery or two-battery mode, with the 1B config being more nimble handling with less range, and the 2B config more range. In any case, you can then enjoy rapid-swap of the standard 2nd battery, or maybe just rent one for a long trip.
This also helps the automakers keep their proprietary designs on the main battery for differentiation. The 2nd battery could go in the extra trunk space or something...
Current batteries charge way faster from 0-50% than 50-100%. The curve really starts to fall off above 80%.
I usually try to plan my stops so that I’m arriving with 5-10% and charging to 60-65%. With 250kW chargers that results in a ~15min charging stop.
I don’t think the costs of development, impact to vehicle design, and infrastructure would make sense for swaps just to replace what is already a 15min charge.
Yet still, being able to get 40% in 3 minutes is still better. I'd also see little reason that a properly configured trunk couldn't hold a pair of 40% battery units. Kind of like carrying jerry-cans on the back of a rover, except you can just plug them in...
Truck yards usually already have equipment for heavy lifting, and the batteries need not be tailored to the car aesthetics and space constraints. Also, a narrower industry has a better chance to come up with a common standard.
Doing battery swaps on such vehicles would be incredibly difficult (least of all from an engineering perspective), and my suspicion that it was more subsidy scam than genuine attempt is based on other factors.
https://en.wikipedia.org/wiki/History_of_the_electric_vehicl...
Fascinating, and thank you for linking.
I now own a few eBikes including a DIY conversion, a Sur Ron dirt bike and an Onyx emoto. The batteries are just so insanely compact and heavy, it's surreal. The Onyx has a removable 72v/48ah extended range battery which weighs 37lbs (17kg) [1], similar to the weight of the swappable batteries in the article. Let me tell you, that may not seem like a lot of weight, but it really is and it's *just so dense!* It's the equivalent of over 4 gallons of milk contained in two shoe boxes.
Seriously, every time I have to move - or should I say "manhandle" - the batteries in any of the bikes, I audibly groan and make sure to lift with my legs. The batteries are all different shapes, sizes and in various boxes and all shockingly heavy for their size. The sharp edges of the Onyx battery box is a true hazard as its momentum will give your thigh a nice bruise should you swing it, or your car a nice dent.
Anyways, I'm sharing all this to say: Batteries are heavy af. Really. As good as a solution this is for scooters, don't expect it to go much more beyond that. There won't be swappable batteries on your big Zero or Livewire any time soon.
1. https://www.onyxmotorbikes.com/collections/parts/products/rc...
I own a Sur Ron too, and I don't find the stock battery weight to be an issue. ~30 lbs isn't unreasonable for the average person to lift. It's amazing they packed a dirt bike into 125 lbs. I'm able to lift it over barriers and load/unload it from my sedan, and it doesn't ride far off from a mountain bike. It's only twice the weight of a top of the line e-mountain bike, but has 7x the power output and goes further. Easy decision. It's the most fun machine I've ever owned.
Zero uses 3.6 kwh modular batteries. I'm guessing they are 40-50 lbs or so which is probably around the upper limit the average person would be comfortable lifting and loading regularly. I'm sure they could be engineered to sell them in smaller sized units, but I don't think they're actually hot swappable.
Keeping my eye on this one: https://starkfuture.com/en-us-US/products/stark-varg
I agree, but it's definitely at the limit of comfort, especially for smaller people (which I've witnessed personally). That's literally a third of the body weight of some fully grown women!! Much heavier than that and the batteries are just unwieldy, if not outright dangerous.
Stark's bike is cool, but honestly it's just the first of a wave of e-dirtbikes that are coming from literally every motorcycle manufacturer there is. (Stark's founders also seem to be a bit full of themselves, but that may have just been their marketing department getting a little overzealous.)
(I'd love to share your experience with the Sur Ron, but I only "own" mine in the sense that I was the one who purchased it. My son has been doing all the riding on it! Like you, he loves it. I see another one, or a Talaria, in my future soon.)
I’m glad to see this happen.
What I want now is an electric assist scooter, where then battery is smaller and it simply makes your manual pushes far stronger.
I’m no electric engineer, but I think there’s an opportunity here. If you can minimize the resistance added by adding an electric motor you might be able to really decrease the weight of the scooter if it only propels you on push.
I don't know how to clearly differentiate between the two types of scooter when talking about them.
Best example of this is braking. Most electric longboards accelerate and decelerate as fast or faster than a scooter. However the laws of motion still apply. Without something to hold onto you have to actually anticipate your deceleration and lean back when decelerating - very unintuitive.
When I had an electric longboard I let several people use it and saw several people fall over (fortunately they fell on their feet)
I miss eBikes, which seem to have been pretty much replaced by eScooters, at least in my community.
When it comes to wheels - size matters!
there's data out there shows that there's more injury using a skateboard vs manual powered kick scooter:
https://doi.org/10.1177/0363546504269256
https://doi.org/10.1542/peds.109.3.542
proving conclusively that a skateboard is more dangerous than a scooter would be difficult observationally, however. intuitively though all of the danger present in a scooter also applies to a skateboard, with the added addition that a skateboard doesn't have brakes nor does it have a way to steer without leaning, putting yourself at risk of falling off.
> intuitively though all of the danger present in a scooter also applies to a skateboard, with the added addition that a skateboard doesn't have brakes nor does it have a way to steer without leaning, putting yourself at risk of falling off.
Those may not be entirely bad things. It creates a feeling of danger that scooters tend to hide too well. I tend to feel out of control on a skateboard before I'm actually unable to control it. I tend to feel in control of a scooter until something happens and I realize I've had very little control the whole time.
That's my pet theory for why electronic scooter accidents are so common. The controls make it feel under control even when it isn't, which is how we end up with stupid stories like putting 2 people on a scooter and crashing at 20 mph. I strongly doubt normal people would go 20 mph on a skateboard, much less with a second rider.
The larger wheels make for a much smoother ride, and they handle bumps far better. You’ll pop over a bump that would send a skateboard into an instant brake.
Strangely the article could apply to a traditional standing scooter as well. What a coincidence.
I did think the 50 mile range was a bit overzealous - shoulda known.
These are the things that start becoming possible if we let our idea of an EV move beyond a 4000lb automobile to move your maybe 200lb self. You would have to use a technician to service a car sized EV and swap out the batteries even if they dropped right out easily, just due to the to weight of them. An entire infrastructure that would have to be built just to move around 3800 unnecessary lbs anytime you wanted to go anywhere at all. Meanwhile, if people were merely happy with something the size of an e scooter, converting the population to EVs starts getting a lot simpler just in terms of the physics of it all, and simple low hanging fruit innovations like this are possible.
For example, if you tried to launch Squarespace in 1993, most people wouldn't care; they'd wonder who would want it and why. (The World Wide Web was a niche thing at that time.)
We have the technology, we need the political will. These scooters are nice but few people will brave riding them in a busy American street, not to even mention a highway.
Which is another way of saying 'willing voters.' Who all own cars already, for the most part. And rarely vote to reduce their own quality of life even if there is a possibility that in the longer run it will be higher.
You're likely reading this on a device that was invented while plenty of ignorant people were still not enlightened.
(I admit I may have worded my comment a bit better with a "that" - 'If innovation can't happen until the ignorant are enlightened we're never going to see that innovation.')
The costs are more than likely paid by others, which is why they're oblivious.
Far easier than convincing them would be to stop subsidizing them, sprawling car dependent suburbs are a giant money sink that the people living in them rarely pay for.
A lot of city centers in Europe have been closed to cars during the last decades but special trafic is still allowed.
It just works and it’s better for everybody.
And now I hope this will be extended outside of city centers.
RIP Europe, you will be sorely missed.
On a more serious note, ride sharing services are considered as taxis which are considered public transport and public transport is generally allowed at least on designated roads.
In Granada Spain I noticed that certain parts of the old city had physical barriers that could only be passed by a vehicle with the right NFC pass. Generally taxis, busses, and a few private cars that seemed to belong to people with property in the area. It made it very pleasant to walk around the old streets without having to suck down exhaust fumes of idling cars.
As you noted, Uber is a newer service, plenty of people happily lived their lives before it existed.
The international symbols show it's a pedestrian zone, and there's a rule of no stopping from 11-04 (no stopping meaning not even any loading/unloading, a stronger restriction than no parking.)
The text says "Residents excepted" (under the graffiti/sticker) and "Goods vehicles excepted 04-11" (so deliveries and rubbish collection in the morning) on all days including Sundays and public holidays.
50m down the cross-street on which the StreetView car is driving, there's the standard sign for no motor vehicles [2], and the text underneath says "Except for business" -- so this street can be used all day for delivery vehicles etc.
Both signs are enforced similar to parking: get caught, and you'll be fined. I'm sure you're less likely to be challenged if you're driving a van with "Plumber" written on the side, but it shouldn't matter.
No doubt it's more complicated in cities where this is enforced by cameras.
(In addition, the pedestrian streets are mostly conflicting one-way streets [3, and do a 360°]. No problem for a delivery, but useless as a shortcut.)
[1] https://www.google.com/maps/@55.6779772,12.5729422,3a,25.5y,...
[2] https://www.google.com/maps/@55.6772541,12.5737765,3a,23.2y,...
[3] https://www.google.com/maps/@55.6814522,12.5751944,3a,75y,12...
You walk or take transit within that area? In my experience European cities are super walkable within the core, never bothered with taxis or ride-sharing.
This makes roads safer for bikes and scooters, but the NEV gives a car-like option for someone who can't (or won't) ride a bike.
Even a NEV-plus standard that allows up to 35mph would be an improvement, that would already cover almost all of my commute.
There are some solutions that can slow cars but still allow emergency vehicles through, but they aren't perfect, and still need sign off from the fire department. And that signoff can be hard to get, years ago, my neighborhood wanted to install speed humps to slow traffic -- the fire department vetoed it since the road was the main access from the neighhood firestation.
The main thing is: how bad are speed bumps for vehicle maintenance, really? Fire trucks, for example, only need to go full throttle when they leave the fire station.
When they come back they can just go over the speed bump slowly, like everyone else.
Why would going over 1 speed bump every bunch of days be such a major issue? Does that mean that a fire truck going over a pothole will do a barrel roll? :-p
But even for ambulances, if you couple traffic calming measures with bike lanes, better public transport, etc, car traffic goes way down, which means that ambulances aren't stuck in traffic. So even ambulances can slow down a bit before speed bumps and they would still arrive faster than otherwise.
That way you can avoid passthrough traffic.
I can't imagine any developed city having the collective willpower to retrofit these sorts of paths into their city, though.
I see you live in an area with significantly more days of good weather than bad!
FWIW, the Aptera three-wheel EV design gets IIRC 10X better distance/kWhr than most EVs, and has a US classification as a motorcycle.
It's impossible to use anything but cars in places with bad weather. Science has proved it!
The path I was on wasn't really maintained with winter bikers in mind, and I never even thought of researching winter tires, and I wasn't a particularly skilled cyclist (I don't think I cleaned the chain once in several years).
So I did what any stubborn-minded fool who had to bike to their job rain or shine would do: I simply fell over repeatedly until I started getting the hang of things (pro-tip: just don't turn at all and you won't fall over)
Nowadays I'm too old to consider regularly crashing during my commute to be a particularly sane idea; though I still don't have a car and wish cycling infrastructure would get even a fraction of the attention that car infrastructure does.
However there is a strong lack of will for it in many places.
In many others the population density doesn't really allow it.
As usual, it's a mix of things, just that the current default of "cars everywhere" should be turned on its head. It should be: "no cars everywhere, and then introduce cars where they are actually needed".
For a rare few places in the world, open air transportation could work year round. For the rest, you'll need an equally sized fleet of cars for the bad days, and scooters for the good days, than can be easily swapped.
1. https://www.tandfonline.com/doi/abs/10.1080/15389588.2020.17...
> During the observation period, a total of 875 GC-related crashes occurred, representing an average of 136 crashes, 65 hospitalizations, and 9 dead or disabled annually. Of all crashes, 48% resulted in hospitalization, severe trauma, or death. Of these, ejection occurred in 27%, hospitalization in 55%, and death or disability in 15% of crashes.
2. Random YouTube for scale: https://i.ytimg.com/vi/xHh1vAGd8Uk/hqdefault.jpg
Nice personal attack.
You have 0 info about me to say anything. You know what they say: "if you have nothing to say, just shut up". Your mom should have taught you that ;-)
> For a rare few places in the world, open air transportation could work year round. For the rest, you'll need an equally sized fleet of cars for the bad days, and scooters for the good days, than can be easily swapped.
A rare few places?
Bikes are common in South East Asia (hot, wet).
Bikes are common in the Netherlands (wet, windy).
Bikes are common in Finland (icy).
Electric bikes are starting to make even hilly terrain bikeable.
Unless population density is low, bikes + scooters + public transport can cover everything.
People just don't want to do that. That's a different story to "it can't be done!!!11!!".
If your solution to this problem doesn't account for the disabled, elderly, physically unfit, or requires that some or all people be unable to drive in weather that personal vehicles right now handle without issue, like freezing rain, you're not gonna get much buy-in.
A vehicke that can survive a crash at 60 km/h and reach 200km/h and handle properly at that speed is going to weigh accordingly.
And that's in ideal conditions - real world could easily have multiple passengers and a full load of luggage/cargo that'll slow things down.
Likewise with going 120mph - highway speeds are anything from 60 to 85mph. Most vehicles aren't at 100% engine load when cruising on the highway.
And with the 120 on the other end, sure, maybe the engines are good for that, but why even allow the car to go that fast? Why not just put in a speed limiter? Doesn't make much sense why we have all this power imo when the driving rules and laws were written around cars that probably took 20 seconds to reach 60mph and might have needed to go downhill with a tailwind to breach 75mph. And what do you know, the laws always have to account for these anemic vehicles thanks to just old vehicles and stuff like commercial equipment that is going to be heavy and slow no matter what, so you won't find yourself ever needing more performance to keep up with faster interchanges or anything like that since things are always going to built to these meager performance expectations. It's like buying a $4000 gaming PC to run microsoft word 98; wrong tool for the job.
So the main battery is fixed as current standard, but you can throw in a few of these to extend range or if you run out of power for a ~50km type extension.
See this[1]. Quote:
" the excessive noise of these vehicles annoyed residents of some of the wealthier areas of the town and so the company ordered 4 battery-powered buses, which entered service in June 1909; ... [buildings] held charging equipment, so that during the day buses could swiftly exchange spent batteries for ones that were fully charged, a change-over which took about ten minutes. "
[1] https://historicengland.org.uk/listing/the-list/list-entry/1...
It's a wonderful system: If there is a bike available, you can make a 15-minute reservation for it, which givers you the time to walk to it, so it will not be snatched by someone else just before you get there. Then, after your ride you park it and the app will give you an overview of the route you made, and it will tell you the costs €.
During the day, special cargo bikes ride around to swap out empty batteries for full ones.
We basically implemented a battery swapping station and kept a lab-scale surveillance mission running for 3+ hours for UAVs. Ground vehicles were too small to be battery swapped (and we didn't care about them enough as they wre doing more or less random moves).
https://drive.google.com/file/d/0B0tCZKAh4H5cdm9nRkJfTFFsTG8...
Does anyone have any reason why this wouldn't work? Perhaps parts being stolen from the rental batteries before they're returned or some such?
If every brand or every model has a different pack size, then swap stations aren’t very scalable.
If you standardize pack sizes, then some cars will have less range than they could, given that they could fit a larger pack.
It makes a lot of sense for the relatively small, light, and inexpensive scooters. The packs can be hand carried, and different vehicles can just have slots one, two, or three packs as needed.
You aren’t trying to squeeze 300-400 miles out of a scooter by packing every inch of the frame with batteries. “Good enough” is perfectly fine for urban scooters.
And I think the reality is that it just won’t be economically viable for large cars. We are quickly reaching the point where the battery packs will last the lifetime of the car, and roadtrip charging stops are falling under 20 minutes.
Are we helping that along by lowering the lifespan of cars?
Advances in battery chemistry and charging could be rolled-out across "legacy" fleets of EVs by upgrading the charging stations and batteries in circulation. The EVs themselves remain unchanged.
I feel like planned obsolescence is a "feature" of current EV's, in part by integrating the battery pack so deeply into the design. There would weight/efficiency trade-offs in standardizing on a battery pack but it's not like there isn't value returned by way of faster "recharges", increased service lifetime of the EV, and the potential to take advantage of new battery/charging technology.
It also seems like rapid battery change stations would be a great "pivot" for existing gas stations and truck stops, and something they could move into slowly (convert a portion of their dispensers over to battery change rigs as the Customer base shifts from ICE to EV).
Tesla alone is opening stations with 8-20 charging stalls on a daily basis, and other companies are doing similar work:
Tesla: https://supercharge.info/changes
Others: https://fastcharger.info/
We are already at the point where most new EV car batteries are going to last the life of the vehicle, and can get a useful charge on a road trip in under 20 minutes. Battery swaps are an interesting idea but would add extra space and weight and require a level of standardization that just isn't going to happen across manufacturers unless forced by regulation.
Even if an EV needs one battery replacement in its lifetime, that's an entirely different impact to vehicle design and infrastructure than having battery swap stations (brand/model specific???) on every street corner.
Newer chemistries are aiming for longer lifespan, with Tesla's stated goal being a million miles.
Basically most of the problems preventing EV adoption 10-20 years ago have been solved by scale and technology improvements, so I wouldn't expect those to stop today. I think if we put an interstate-highway-system level investment into battery swap stations and standardization we might see it all be obsoleted in a decade as cars can fit 500+ miles of range, recharge to 80% in 15 minutes, and have batteries that last 500,000 - 1,000,000 miles.
Also as the EV industry matures, I'm sure we will see a market for recycled and refurbished batteries outside of the OEMs. This is already happening at a raw material level, and OEMs are doing this at a battery pack level.
If your 2007 Honda has an engine or transmission failure at 200,000 miles, you probably are going to pay someone to rebuild it or buy an already rebuilt component, rather than paying Honda the value of your entire vehicle for a brand new factory engine.
Edit: And have you actually measured that your 2007 Hondas still get 100% of the rated EPA range? I would find that pretty surprising.
Tesla is probably coloring my perception, what with reading horror stories about parts being unavailable after minor accidents. It seems like Tesla, especially, is doing everything they can to avoid a used market. Just their "DRM" alone makes the car feel like a long-term rental versus an ownership model.
I feel good about my ICE cars' lifetime because I can get rebuilt parts and have a "good as new" vehicle (if the cost makes sense). The EV industry doesn't feel like it's going that way any time soon. Maybe some regulation would help.
re: Range/mileage of my Honda cars - I track fuel fills and mileage religiously (being a child of parents burned by the 70's gas crunch and who are borderline "hyper-milers" with their own vehicles). Both my vehicles still operate at or above their EPA rated mileages (17-20 on the Pilot and 27-31 on the 2007 Civic Si, mixed city/highway driving but heavily dependent on the type of driving). I've had excellent luck with Honda vehicles and I also try to take excellent care of them. (I'd still be driving my wife's 1995 Civic, at 350K miles on the original engine and transmission, if not for the body rusting away from 20+ years of Ohio winters. It wasn't washed regularly during / after winter in its early life and never had anti-rust treatments. Poor thing.)
It's not tomorrow, but the car market and chargers are going to look a lot different in 10 years. And I don't think installing a bunch of mechanically complex battery swap stations is going to work for American car preferences unless we get some really onerous regulation to standardize across brands and car models.
I thought this was a brilliant idea and implementation, but it hasn't been all that popular and there was a safety recall of the batteries at one point.
https://www.statista.com/statistics/664691/share-of-two-whee...
We'll see these battery swaps right after FSD actually becomes L3.
"In 2013, California revised its Zero Emissions Vehicle credit system so that long-range ZEVs that were able to charge 80% in under 15 minutes earned almost twice as many credits as those that didn’t. Overnight, Tesla’s 85 kWh Model S went from earning four credits per vehicle to seven. Moreover, to earn this dramatic increase in credits, Tesla needed to prove to CARB that such rapid refueling events were possible. By demonstrating battery swap on just one vehicle, Tesla nearly doubled the ZEV credits earned by its entire fleet even if none of them actually used the swap capability."
It's a ton of fun for track, adventure trails etc, but for commuting, not having your body be the crumple zone is tough to compete with.
- The battery is expensive and makes up a large chunk of value of the car itself. Being able to swap out a dying years-old battery for a fresh new one doesn't make sense.
- Swapping an electric car's battery is time consuming and requires specialized equipment and labor.
- The real utility for battery swaps for cars isn't in the middle of the city but in remote highway stops, where setting up such stations isn't feasible.
I, myself, don't see how this can be more competitive than superchargers. But I do see that some customers would like to have this option.
Most people use their cars for well under 100 miles per day. With a battery-electric car, you can charge it at home. You never go to a station for anything -- not fuel, not fast-charging, not battery swapping. You come home, plug in, and get on with your life.
People will make a few long trips per year, and those cases are well handled by the supercharger network. It doesn't take long, and corresponds to down-time that most drivers should be taking anyway.
There is nothing for them to gain by a massive redesign that would gain most users little to nothing. Instead, they take the stable battery pack and design around it, even making it a structural part of the vehicle to save weight.
Replaceable battery packs for cars solve a non-problem. People who would want them would do better purchasing a gasoline car, which are readily available and will remain so for quite some time.
Most people in most big cities don't have private parking they can equip with a charger, and they struggle to even find parking at all. You'd have to make every single parking space in a big city a charger to make this approach scale.
... should use fast chargers, if they have no 'at home' option.
Most people in the US live in single family detached homes and can get enough juice from a 120V outlet to meet their daily driving needs.
People who insist on having cars in cities will either find places to charge, continue to own gas cars, or switch to ride sharing plus public transport. It is not a case for Tesla to change their entire design.
I don't know what portion of US drivers park either on the street or in a parking garage, but I'm pretty sure it''s tens of millions of people. Driveways pretty much don't exist in my neighborhood. It's all parking garages and street parking.
Lining every parking garage and neighborhood street with dozens of chargers may be the optimal solution, but I'm skeptical.
All the charger does is tell the car how much power it’s allowed to use, authenticates the car, and flicks the switch on at the command of the car. The charger also has a cheap-as-chips current transformer so it can make sure the car doesn’t consumer more power than it allowed, and will flick the switch off if the car misbehaves. The car is responsible for everything else.
So at the end of the day, and on street slower charger is a metal post with a plug on the outside, and a Raspberry Pi and relay inside. They can, and will eventually be, dirt cheap to manufacture. As for power cables, well, and can just slice into the cable already powering houses and lampposts.
DC fast chargers are more complex and expensive but still way cheaper than a robotic mechanical battery swap system that works across multiple makes and models of car. And more of these are being installed literally every day:
Tesla: https://supercharge.info Others (US): https://fastcharger.info
We're getting to the point where many newer EVs are coming with 300+ miles of range that can do an 80% charge in 20 minutes.
The swappable batteries seems like a great solution for mopeds etc. but for giant car batteries I think better and cheaper batteries will outpace any advantages that battery swapping has within a few years.
Is there public data about how big the network would need to be if 90-100% of long distance travel is switched from 5 min gas station stops to super charging; both in terms of throughput and latency? And/or studies of (probably rare) mass transit events that may or may not be expected; thinking natural disasters and large events away from population centers like burning man or Coachella.
Might as well just stop in for a 20 minute charge at a DC fast charger, many cars can do an 80% charge in 20 minutes.
My gas powered car gets around 300 miles of range before the fuel light comes on and I need to make a 10 or 15 minute stop to refuel. I think I could survive with an EV that gets 250 miles of range between charges (300 mile rated range, assuming 80% charge) before needing a 20 minute charge stop, I need to stop and stretch my legs, eat, or use the restroom more often than that.
Here's a TED Talk about it from 2009 https://www.ted.com/talks/shai_agassi_a_new_ecosystem_for_el...
They went bankrupt in 2013
Larger vehicles could even have multiple batteries - one quick swap one on the bottom and then another one elsewhere in the vehicle that was a bit more work to swap - this way you could mainly use and stress the swap battery and ideally keep swapping it out as needed on a road trip but worst case you still have a large energy reserve to fall back to.
Otherwise, you will be ripped off by the better informed charging station that hands out only their worst batteries, and sells the best trade-ins as new.
There would need to be regulation on it. I wouldn't trust my manufacturer or charging network not to rip me off if they had the chance.
I’m not saying we need in-street contraptions like GP described, but “just charge at home” doesn’t cut it for a lot of people.
I like the kiosks mentioned in the article, those seem pretty convenient for city-dwellers.
For the rest, a 300 mile EV with once-a-week fast charging while they grocery shop is entirely viable. Yes we need to continue building out the infrastructure, but since your comparison is with a battery swap solution that doesn't currently exist in any form, we're already way ahead on that.
Assuming you’re driving to get your groceries. That’s also not necessarily a good assumption here.
With fast chargers a weekly grocery trip or a charger near the office would probably satisfy most needs. Tesla claims that 15 mins. yields a 200 mile range. My gas hog Pathfinder gets about 250 miles between fillups that last about 10 minutes (bathroom and snack breaks when I'm on a road trip). It seems that range anxiety is kind of overkill. To be honest I'm surprised that coffee shops, and fast service restaurants haven't been installing chargers.
If so then there is potential for charging infrastructure to solve your use case without requiring every person to have home charging.
DC fast charge infrastructure is growing at a huge rate. We have tested designs that are being mass manufactured and are installable in basically any parking lot with enough nearby grid capacity.
New charger locations are being added literally daily across the US and the world.
Tesla: https://supercharge.info
Others (US): https://fastcharger.info
It's definitely going to be a different model than gas stations, but I think we can continue to install huge amounts of DC charging capacity at stores and along highways, combined with slower AC charging capacity at apartments, office buildings, etc, easier than we could install enough battery-swap capacity to handle the EV transition.
Not by car I don’t; there’s no need to.
Likewise my company’s office basically doesn’t have parking, so charging there isn’t an option even if I did drive there regularly (but I don’t).
Best option for me would be if my apartment building had EV chargers in the garage, but it doesn’t. (And my last place was more central and didn’t have a garage at all.)
Charging definitely doesn't cover everyone yet but I think a lot can change in a decade, and running AC circuits off of the existing grid seems more feasible to me than mechanical battery swap stations that work across different brands and models of car.
Anyway, not suggesting that battery swap stations are particularly practical for electric cars? Those have huge batteries. But if stations for electric scooters as mentioned in the article get any traction, that’d be a win I think.
If we had the technology and logistics to build an entire underground battery swapping facility at every major intersection, I'm sure we'd have moved past cars completely!
Seems like they went bankrupt though in 2013
When it's a battery swap situation, you don't own the thing, and you bet your ass they're going to have anti-tampering measures for obvious good reasons.
It's especially problematic for vehicle batteries since they're so large in terms of both physical volume and power capacity. There's plenty of margin to slide in a smartphone equivalent payload.
If it's not something we can defend against it's a significant downside to the battery swapping arrangement IMNSHO.
I assume they mean for EVs, since I have been swapping them in my portable devices for decades.
Also, I bemoan the use of the word "technology" just to make something sound more impressive. What technology is involved in swapping batteries?
You rent batteries from Vinfast for your scooter and then, supposedly, can swap them out at a variety of Vinmart convenience stores or Vinfast dealers. The problem is that very few Vinmarts participate and the number of them seems to be shrinking. I've also been in a situation where they are simply out of batteries to swap.
And then on top of all of that, the types/shapes of batteries differ between scooter models.
That said, I love my scooter but I definitely don't bank on the battery swap stuff.
As an apartment dweller this makes so much sense.
The grid-losses were reported to be ~30%, and India provides electricity (albeit bad quality, intermittent) for free to all Indian farmers. Unclear how this can be scaled TBH (ignoring issues with battery sourcing etc.).
I do not think that is true. This is what all of them say whenever standardisation comes into the argument. However obviously they use that to lock the customers in.
So the scooters should be able to handle the new batteries just fine, and it would be on the network operator to upgrade the charging kiosks accordingly. It'd be much easier to rolling-upgrade batteries in a swappable fleet than to call fixed-battery scooters into the shop and swap each one out, as well.
You will need a standard communication protocol for storing charge/discharge history with the battery and reporting temperature. Nobody wants to swap in a battery that is exhausted and won't maintain a charge. Vendors maintaining swap pools need to know when to cull old packs.
As quoted in the article this piece is what the finance minister highlighted in her budget speech last month as being important to get in place.
Maybe if they switched to a different chemistry like Lithium Titanate they could chaemrge quicker. For now it is easier to use LiFePo batteries and just swap them out.
(1) Heat dissipation. You're charging the battery with a much higher current than the discharge current. Even if you can push a coolant through the battery at the charging time, it adds serious thermal loads, and associated mechanical loads, to it.
(2) Power at the charging point. You're pushing dozens or even hundreds of kilowatts, this takes both high voltage and high currents. Cables and connectors aside, the particular charging place just needs a pretty beefy cable from the electric mains. A typical cable going to a single-family house has a 20-30 kW limit. Now imagine a station with 10 charging points.
Smaller batteries are capable of delivering less current, but also only capable at charging at lower currents. So you can’t charge the individual cells in a battery any faster than the battery as a whole.
If you tried to take a single little cell, and charge it at power level of an entire EV battery, all you’ll get is a small explosion and a fire. If you take one of the individual cells out of a Tesla, it’s not much bigger than a AA battery. The charging cable of a super charger is much thicker than a AA battery, and made out of a substantial better conductor than a battery. Just imagine what would happen if you took a battery the size of a AA cell, and plugged it straight into that cable, running at 480V and pushing almost a thousand amps. They peak at 250kW, about 50 households of power usage. Your little battery won’t stand a chance.
So you have to use three sets of batteries for 80kms. Sorry, but I would still use gas.
Of course, but this is very privileged stance, and you're not the target customer base either. The overall cost of those three batteries is significantly lesser than gas so as to merit their choice for batteries.
- Also the vehicles mentioned here (Auto rickshaw) generally carry max 3 customers for shorter distances. Majority of the travel will be in the range of less than 10 Kms.
So for less cost, she is able to serve the same customers, increasing her earning.
Hopefully this can be adopted soon
XBox players remember...
It's laughable to call it 'new' technology but it's nice that an infrastructure to make it happen for e-scooters is a thing.
Nearly half the initial money in the Softbank Vision Fund was Saudi Arabian and that gave us Uber and many other new unicorns. If anything we should be worried about the effects of all those cash reserves starting to throw around their weight.
Since then, there's been approximately zilch in terms of commercial applications, despite numerous drawbacks inherent to lithium ion batteries. I'd bet on some novel alternative battery technology over hydrogen.