The Electric-Car Boom Is Real
bloomberg.com
bloomberg.com
Raleigh now sell more electric bikes than normal bikes. That's where the real 'revolution' is occurring.
If you live in a city and your commute is in the 0-5miles range, they are simply the fastest way of getting to work during rush hour. You might not like the idea of a hot sweaty cycle ride to work. Neither did I.
Seriously pop to your local bike shop that sells these things and try one. In my case, I've stopped using buses and taxis, sold one car, and gone down to a one car family. It's saving me a fortune.
Would definitely recommend the mid-drive over hub-drive eBikes. They produce more torque. If you live in a hilly area, try and get a bike with at least 60nm of torque. Some top out at 90nm. Just means you can cycle up those 1 in 2 hills one handed.
You don't have to exert yourself until you start sweating. Cycling at around 10 mph is equivalent to walking at a brisk pace (3.5-4 mph) [1]. On really hot days you'll be less sweaty cycling because of the breeze (except if you're wearing a backpack). If you live in a really hilly area, you might break a sweat on the uphills.
[1] http://www.ucdenver.edu/academics/colleges/medicine/sportsme...
Tangential, but as a long-distance touring cyclist, it always saddens me to see riders with large backpacks, especially in hot weather. I know that a rack and a pannier did not come standard with the bike, but those riders would have a much better experience if they used panniers!
It allows more airflow, but more importantly, it takes the weight off your body and puts it on the bike.
Bicycling at 12-13mph same level of energy expenditure as push-ups? Nope.
Running at 9 min/mile more exertion than push-ups? Nope.
I've exercised, they make sense to me.
> Bicycling at 12-13mph same level of energy expenditure as push-ups? Nope. > Running at 9 min/mile more exertion than push-ups? Nope.
I agree that to me bicycling at 12-13mph or running at 9 min/mile sounds easier than push-ups. But that is because push-ups exercise a much smaller muscle group, that is much easier exhausted (and that is much less trained in my case). I can run at 9 min/mile for hours, but will exhaust my chest muscles before 50 push-ups. That doesn't mean that energy wise one is harder than the other. My heart rate during push-ups or pull-ups doesn't surpass 140 bpm, which is about the same as when running 9 min/mile.
If you look at the physics: your center of gravity moves about 20cm up and down during a push-up (in 1 second). During running your center of gravity moves up and down 10 cm twice-thrice a second.
For sure we should strongly look into alternative approaches which would reduce or eliminate congestion, but until they are deployed, people are going to be dependent on cars - we should make those cars as environmental friendly as possible.
They could. But they could also greatly increase congestion because travelling with car will be a lot more convenient. Especially if the car can drop you of at your location and find a parking spot itself.
I think the only way self-driving cars will reduce congestion is if the cars are shared both per ride and over the day.
This could only possibly work for internationally-focused firms, firms that operate around-the-clock, or firms that do not need contact with other firms and contact customers outside business hours. That is a very small subset.
Business hours are excellent for everyone involved in terms of work-life balance and coordinating business. They are not a good thing to sacrifice and it would only be a stopgap measure anyway. If you need to move a ton of people all at once, you need public transportation. BUILD MORE TRAINS
/swiss
Mainly I was trying to make the point that self-driving cars won't make much difference to this specific problem, but I don't seem to have communicated that very well given the replies.
Pollution from brake and tyre particles is something that will not be tackled.
I do think the key is lack of choice. People feel, given the design of our roads, that they have no choice but to get into a steel box and drive around.
Buses would get a lot quieter though.
Normal cars are fairly silent, and HEV/EVs are almost completely silent.
The proposed? Legislation to have noise emitters on EVs might change this.
All of those produce environmental effects that for EVs are now:
- local instead of spread out
- largely decoupled from the vehicle
This is a huge architectural change because we're factoring environmental effects out of the vehicle, which allows for accelerated improvements without changing the car itself as well as economies of scale resulting in better environmental efficiency. Switch from coal to nuke and all currently running EVs stop emitting a lot of CO2 at once. Switch to wind+solar and they're suddenly all nuke-waste-free too. The same car could change to more recyclable battery tech (swappable batteries, battery rental...) over the course of its life and become progressively cleaner. So even if it provides an increase right now (which it doesn't, plus we're just living on a huge carbon credit card anyway) it certainly won't on the medium to long term.Don't "just ask questions" and then when someone wastes their time responding as if you were genuine, claim that you already know that people have done research but you don't believe it.
Plus things are improving all the time with electric. That's one of the wonderful things - decoupling of energy usage from generation. You can switch the coal to solar, you can't just switch the diesel for something else that doesn't pollute.
Plus with the Gigafactory they can start doing very efficient battery recycling because they built the batteries (there was a quote somewhere in the speeches given at the Gigafactory opening)
Obviously Tesla is biased, this Green Car Report article [0] (probably still biased, but seems pretty acurate) reckons on 292 g/mi of CO2 for a Tesla:
> We've arrived at a number for the real-world effective CO2 emissions of a Model S of 292 g/mi. Admittedly, that's lot higher than Tesla claims on its website.
> But worse than a Grand Cherokee? Hardly.
> The V-6 Grand Cherokee's official EPA CO2 number is 479 g/mi when fitted with the smallest engine offered, a 3.6-liter V-6. The more powerful V-8 model logs in at a whopping 592 g/mi.
You then have a separate wired article raising most of the questions you're asking [1]
As far as I see it though, all of the aspects of electric cars can be improved from mining of the minerals to recycling - but you can't recycle oil and there's very few improvements that you can make.
[0]: http://www.greencarreports.com/news/1084440_does-the-tesla-m...
[1]: https://www.wired.com/2016/03/teslas-electric-cars-might-not...
So the 479 g/mi for the Cherokee is just the emissions.
So
- Model S CO2 = 0 (EPA) + 292 (other factors)
- Cherokee CO2 = 479 (EPA) + ? (other factors)
Those other factors aren't going to be zero for the Cherokee
I also can't take Musk's claims for even being close to honest.
The environmental effects of producing such small devices as cellphones is known to be significant. With the cars it's completely new orders of magnitude, which can result in non-linear responses, even if we know the good estimates for the smaller batteries. Do we?
Very easily. Batteries are very simple and have about a dozen input materials, usually from single sources. They are some of the most easily analyzed products in the world. There's a steel jacket with a plastic gasket, a cathode material (in Teslas this comprises lithium, nickel, cobalt and aluminum), an electrolyte mixture (common, safe liquids like ethylene carbonate or dimethyl carbonate), a separator (one of many common plastics), and an anode mixture (around 55%/45% natural and synthetic graphite, possibly with a few percent silicon). Every one of those materials is extremely common, readily available, and highly recycled or recyclable. Almost all steel and aluminum is recycled, and plastic can easily be recycled. The electrolytes are just small carbonates, used in a ton of industries. Nickel is the biggest threat by far- per pound cobalt is slightly worse, but there is 5.3x[1] as much nickel in a battery.
If we switched to 100% electric cars using Tesla sized batteries, they still wouldn't use as much nickel as the stainless steel industry does. There is no comparing the byproduct during manufacture. Lithium battery production is just great.
For recycling the worry is solely that the nickel and cobalt will leech from broken batteries into the water supply. This doesn't happen with stainless steel because well, it's stainless. Luckily nickel and cobalt are also the most valuable part of the battery, and are quite valuable to recover through shredding and incineration. The scrap value of nickel alone in the battery is more than the scrap value of steel in the car, so recycling is virtually guaranteed.
>I've seen only some very dishonest ones like "once the batteries are not usable in cars we'll sell them" where the worth of the used batteries was immensely overblown.
Are you sure you have your facts right? A battery is "used" when it's maximum capacity is 80% of it's original capacity. It continues working long after and can even degrade slower. The only problem is that it's much heavier for it's capacity- 25-50% heavier. For permanent storage that isn't a problem. Their value could easily be 50% of the original price or more, for well kept batteries- recycling wouldn't even be an issue in that case. At that price buying used batteries would be almost as cheap as buying gasoline for generators.
[1]: http://neicorporation.com/specs/NANOMYTE_BE-45_NCA_Spec_Shee...
The above claim is exactly what made me skeptical: the greater availability of something reduces its price, so 50% of the price of a new one just doesn't sound right, unless there's some identified other immense need for them: the number of "used" batteries available to the market would be huge if the number of the buyers of the electric cars would significantly increase. That can only pull down the price of the used ones and increase the price of the new ones. The real question is where the ultimate prices would be, considering these effects.
Also, Tesla claims that their lithium batteries last extremely long, that is so if the battery's not completely discharged, but every lithium battery in every notebook I have had was the first to die or degrade very fast, even if I surely never "deep" discharged it. And it's so small compared to the ones in the car. So there is some significant difference somewhere between what's claimed and what I've personally experienced.
And what's the market for the used up consumer electronics lithium batteries?
Also in 2013 Musk's company claimed the Model S makes 176g CO2 per mile, controlling their claim gives "346g per mile - more than the 312g per mile the EPA says the Toyota Highlander emits."
https://seekingalpha.com/article/1430161-in-summary-the-tesl...
My main argument stays -- there's no reason to believe Musk, and every for an independent careful control of his claims.
The EPA mileage calculation is based on a set ratio of city/highway miles (35/65 IIRC). Obviously that does not reflect reality perfectly. It is also a description of ideal driving habits, which of course people do not follow.
That link is wholly ridiculous. Its rejecting the EPA data as over-optimistic and then comparing it to... EPA data. I'm gonna go ahead and say that those ratings are also optimistic.
Your quote appears nowhere in the article, which says that the Model S emits 228g per mile, just shy of two hybrids.
The grid will continue to add renewables. Hybrids will be very quickly left behind. Plus, this is a massive luxury car- the model 3 will have much lower consumption, being a smaller car.
>My main argument stays -- there's no reason to believe Musk, and every for an independent careful control of his claims.
That's not an argument- it's a character attack. That's not a counterpoint to actual information.
Oh, yes it does. You obviously haven't read it.
> That's not an argument
Of course it is, because even the value which you quote is not what Musk claimed, the whole text behind the link is exactly about how.
That is: Musk provably cooks what he shows in order to sell it in more ways, some of which I've mentioned too, and the different values were proven by the actual users of the car, even by the author who wanted to defend Musk.
On the one hand there is something to your intuition: 50% is a near-maximum price that basically assumes people will be buying batteries for the grid/home. This could be for solar, or people could want stationary batteries at home to keep a quick top-up charge for their car. Alternately companies could buy extra batteries to top up their electric fleet, or to supplement solar, or to take advantage of off-peak demand.
On the other hand the actual resale price is basically irrelevant. The scrap price of a car is a few hundred dollars, so a battery would have to fall to like 5% of it's own value to not be worth recycling. At that price you wouldn't be able to sell the things fast enough.
The volume isn't a real problem. There's a 20+ year lag time before enough cars are being recycled to make this an issue. IF used battery supply ever exceeds demand -very unlikely, given the always falling cost of solar- there is pleeeeeenty of time for recycling to start. The short and long term problems are very different. The absorption mechanisms that seem insufficient at high volume are a bridge to the recycling that seems immature.
>That can only pull down the price of the used ones and increase the price of the new ones. The real question is where the ultimate prices would be, considering these effects.
It would pull down the price of used and other secondary batteries. Normally this would increase the price of a new commodity, but batteries are supply-constrained and their price is set by the number we can make. It would also pull down the price of new batteries, since they would have fewer buyers at the higher price point. More likely the lower demand would have no effect at all.
>Also, Tesla claims that their lithium batteries last extremely long, that is so if the battery's not completely discharged, but every lithium battery in every notebook I have had was the first to die or degrade very fast, even if I surely never "deep" discharged it. And it's so small compared to the ones in the car. So there is some significant difference somewhere between what's claimed and what I've personally experienced.
I dearly love this stuff, and explaining it (I'm an electrical engineer). There are a bunch of reasons for the difference! The biggest one is actually heat- your laptop gets super hot in use and uses the batteries as a heat sink, but an electric car very carefully cools its battery (unless it's a Leaf). A battery at 60C can drop to 60% of its original capacity after just 3 months. This kills laptops dead after just a few years even if you keep them plugged in every second you own them.
The second biggest is depth of charge. The average daily drive is around 30 miles, or 10-20% of an electric car's battery. Most trips are just short errands or commutes, not long drives. You may not deep discharge your laptop, but a battery will do 5,000 cycles if you discharge it to 85%, and 1,000 if you discharge it to 50%. The best results are with normal discharges under 20%, which nobody does with a laptop but almost every single electric car does. A <10% DoD will last for tens of thousands of cycles.
I really can't overstate how dramatic the difference is. Batteries as we currently use them are very badly mistreated, and when they are kept in <90 F conditions they last 2-3 times longer. When used lightly they last 3-4x longer. Both situations happen naturally in a car. Even in very hot climates the hot days never get anywhere near to the temperatures in a laptop or phone.
>And what's the market for the used up consumer electronics lithium batteries?
Currently more lithium is used to make ceramic glazes than batteries. Collecting and reselling the hundreds of different kinds of batteries from junked laptops is a healthy, profitable business in Asian countries. There simply aren't enough batteries to warrant real recycling though.
CO2 claim is open to argument I guess, but the battery recycling is pretty certain. They will definitely have battery recycling at the Gigafactory and it makes perfect sense to be able to recycle their own batteries better. They've got all the schematics of how they were built and so can more easily pull them apart.
If Tesla really pulls off the Model 3, it's a game changer. It'll start the clock ticking until everyone can afford a (used) electric car.
[1]: https://www.cargurus.com/Cars/l-Used-Tesla-Model-S-d2039#lis...
[2] 85kWh, no less: https://www.tesla.com/preowned/5YJSA1DN1DFP16592
These days, straight roads scare me more than intersections. With the amount of distracted drivers out there, I'm not biking on any road without a spacious shoulder or a sidewalk.
A cyclist has the same protection from injury in an accident with a car as a pedestrian, but the pedestrian is far less likely to be injured by a bike than a car (if there is an accident)
Bay Area drivers are much more agrressive and hurried and distracted than a decade ago and I am concerned for my fellow cyclists and pedestrians. (My friend almost got hit last week in downtown MV in the crosswalk when a car ran a red. In downtown! And we were at the other side of the intersection)
PROCEED AS THOUGH YOU ARE INVISIBLE TO CARS, AND YOU'LL BE FINE.
postscript:
IF YOU MAKE EYE CONTACT WITH THE CAR DRIVER, THEY'LL RECOGNIZE YOUR HUMANITY, AND WILL BE LESS LIKELY TO KILL YOU.
If you are wondering if the motorist you are observing is dumb enough to do that thing you suspect they may do in the face of logic and physics, they are. Assume the worst, always have a path out.
And smile. Its worth the extra dilligence to have fun with it.
0. http://www.bike.bikegremlin.com/wp-content/uploads/2017/02/c...
Yes, definitely, I did this at every traffic light I came to in London after someone told me this.
I don't ride in front of a vehicle until I think they have seen me.
Then they'll spend something like $1 billion on a new library or town hall or $100 million on a rec center or whatever.
Meanwhile, the actual road infrastructure cannot support the incredible increase on net new job creation. This makes for traffic jams, everywhere, so people become impatient and increases the number of irrational decisions they make.
I live in the hills, several miles down a very narrow, curvy country road. Nobody goes less than 10 mph above the speed limit, which is genuinely unsafe on this road. They do it because traffic is much lighter than the rest of their commute, and they just want to get home. Of course, they're only shaving somewhere around 28 seconds of travel time off of their total commute while increasing the probability of a deadly encounter with a hapless bicyclist who ignorantly thinks they are riding on a quiet, back-country road.
I am quite certain that the cost of adding a separate bicycle/pedestrian path is quite high, as it would require bulldozing parts of moderate sized hills, and compared with the fanfare of a new police station or city hall, a new bicycle lane for some back road just doesn't compare.
However, knowing the residents of this back road and the town in general, I'm quite certain such a path would generate a lot of real use and potentially save lives. But I'm quite certain this kind of project will not hapen in my lifetime.
1. We need more bike lanes. Sensible lanes. They don't need to be huge.
2. We need to allow bikes on the shoulders of highways. (Got a ticket as a kid)
3. Personally, although I hate regulations, I would like to see all public buildings, and any new, or remodeled commercial buildings be required to provide showers for all employees whom bike to work. They would get an extra 10 minutes before clocking in.
4. Ride a mountian bike in the city. Don't ride a road bike, unless you're very skilled. I've seen so many guys go down. Bike messengers never seem to get hit, or have much trouble, but they are professional bikers--sorry, but they are, and I know some drive crazy.
5. Give a state credit to all employees whom bike to work. (I don't know how you could verify it.)
6. I put my bike in my truck, and drive to San Fransisco daily. I try to park for free, and bike from there. I only use old bikes. The nice ones are stolen. It's not great, but you get used to the routine. Oh yea, since there a huge problem with cvechicles break-ins, take every thing of value out of the vechicle. Open the glove compartment. Put a kill switch in vechicle. And pray your vechicle is there when you get back. I sometimes leave the door open--just too many broken windows for a radio.
nm = nanometers
Nm = Newton-meters
Another 'dodgy' option is to 'chip' your ebike and this will usually enable a assist limited 25km/h bike help you up to 45km/h.
What you do find is that people that are regular cyclists find eBikes too slow however on flat roads. Get a hill, and suddenly they come into their own. If you live in a hilly city/town, they really come into their own.
Prior to owning an eBike I would consider avoiding the most direct routes seeking out the flatter shallower gradient routes or finding myself pushing the bike up the steeper direct routes. These days I get to where I'm going at 25km/h and saves me a lot of time.
I still go out on my cyclocross bike when I want to really enjoy a long leisure ride. Ebikes are very boring as leisure rides.
If your bicycle turns into a moped because it has a motor that isn't artificially restricted to operating at under 25 kph, you'll end up having to take the long way and ride among the cars in heavy traffic. My experience is that Finnish drivers are not particularly used to cyclists on these larger roads, because we have shared cycle & pedestrian paths everywhere. These facts would pretty much encourage me to go by car instead.
I think banning an entire category of vehicles because it "can go fast" is the wrong approach, and horribly inconsistent. I mean I can sprint at 45 kph on a cycle path on meat power if I want to, as long as I do not endanger anybody. And we don't ban cars on small city streets even if they can break 200 kph. Why not, say, speed limits?
We already have large speed differences on (bidirectional!) shared paths and it works out just fine. We have kids and elderly walking at 5 kph, same kids and elderly cycling at 15 kph, and more fit adult cyclists going anywhere between that and >30 kph. Other people stand still. Dogs can be problematic but overall I think it really does work just fine, and I don't think anybody needs to fear for their life. We can adjust our speed.
If anything, forcing cyclists on the roads results in even larger differences in speed. But also mass, and awareness.
> Wouldn't it be stupid to have "bikes" which can go eg. 100km/h?
No, why? If I could, I would.
But the price! I looked at some eBikes, and they were often around 4k. That's almost twice as much as a good quality gasoline moped/scooter like the Honda Metropolitan. So it's a tough value proposition to make.
And legally of course, a scooter restricts you to streets that cars can go on. That might not mean much in an American suburb but even here in a bike backwards German town we have pedestrian zones where bikes are explicitly allowed, one way streets with exemptions for bikes.. being able to use bike-legal paths can make for a more direct, faster route.
We have also gone down to one car.
PS. In Central and Northern Europe bikes are only useful for 4 months a year.
PS2. I don't want to discuss how many days per year someone can ride an e-bike to work. Some sort of public / car transport is and will be needed. There is no much innovation in public bus transport therefore I described the idea about electric van / Uber hybrid.
I lived in southern Sweden and while bike ridership did go down in winter, it was still very high. My city even prioritized snow-clearing/sanding of bike paths (they have special mini bulldozers).
edit: the numbers I found were that in Sweden 30-40% of trips on a bicycle were done in the winter half of the year, so about 30% lower ridership than in the summer[0]
[0] http://www.trafa.se/globalassets/rapporter/rapport-2015_14-c...
I live in southern Sweden and not only is April-October (7 month) perfectly bikable for everybody, a whole lot of people happily bike year round. In areas that get more snow/ice people can get studded tired for their bikes.
> small size
These are conflicting requirements. The minimum size for 6 doors is probably about the size of a long-wheelbase Transit van, only a little smaller than a normal bus.
I'd love to see someone try the commuter multi-drop-mini-bus system; it's implemented informally in various ways already that don't have multinational branding. Won't help in really dense cities like London where traffic is at walking pace, but potentially useful in other places.
Depends on the mini-bus layout. 7-seater VW Touran (4527 mm long) has 5 doors. So maybe it possible to build 5 m long van with 6 doors, with 2 on the back.
> Won't help in really dense cities like London where traffic is at walking pace
Dedicated lanes and some regulations will be needed. For example mini-bus shouldn't be allowed to enter crowded routes unless it has 3 passengers. So two people would have to wait 5 min for the third passenger and so on. Or it can be used to transport people from suburbs to subway stations in cities like London.
PS. In Central and Northern Europe bikes are
only useful for 4 months a year.
I live in Berlin and you definitely see lots of people on bikes between march and october (8 months of the year). Not much different in Amsterdam or Copenhagen I believe (quite possibly better).But
1. How do you solve the personal space problem of a vehicle(a cost effective) and convince a big car company to make you vehicles ? that's not an easy problem.
2. I haven't yet seen such shuttle powered by electricity - not sure the tradeoffs(charge time, ride time, vehicle cost) are attractive enough for shuttle drivers.
Maybe this just means that I should work on getting in shape so I can just ride a route that takes me across the lake...
Every country and city seems to love to nationalize something. In the U.S. every city has done that with bus services. But if you look around the world you'll find places like Buenos Aires that have not done this and have a thriving bus industry that can get you from very close to point A to very close to point B in much less time than buses in the U.S. and with fewer transfers.
But now consider something like Uber/Lyft for _small_ buses: routes need not be set in stone. You pre-arrange every day where and when to get picked up and dropped off. This can probably get much closer to the travel times that private cars can deliver.
Bikes are not the answer, incidentally. Only a small proportion of the population in the U.S. will use them, and only a small proportion of the population in American cities lives 0-5mi from work. We don't build high pop. density cities in the U.S. anymore. The re-zoning plans in Austin (to give one example) call for adding in the next decade just one third of the housing Austin needs, thus increasing sprawl -- this happens because of NIMBYism, and the story is the same just about everywhere that isn't already a high pop. density city. Besides, bikes are scary and dangerous to a very large number of people.
EV+SDT gets you a world where enormous amounts of space can be released for either urban development or rewilding, and where you can breathe the air. It also gives you, conveniently, a world where it's much safer to cycle. SDTs will not drive dangerously, and they don't have blind spots.
I have a car mostly for a handful of 60km ride each year. It is well within range of what eBikes do now (you can check trips with ebikemaps http://ebikemaps.com/). My current car may well be my last one.
Of course this is just a guesstimate.
Generally though I'll agree with you that motorcycles are safer in cities than bicycles, but for a different reason -- motorcycles, unlike bicycles, generally ride along with car traffic on roads, and so car operators are more likely to see them, as they only appear where car drivers expect other cars. Many bicyclists have an unfortunate habit of riding on a sidewalk, which is very, very dangerous. Having brighter head and tail lights on a motorcycle, and blinking indicators definitely helps too.
I've often thought about something like this for my around town type errands.
People are also extremely crafty about carrying all sorts of improbable objects (I saw a dining table once!) in a way that wouldn't be out of place in Indonesia. It's very refreshing to see some 3rd world ingenuity in the 1st world.
For reasonable speeds, like that of a city bike in high gear, an aerodynamic umbrella works plenty well:
I find it easier to carry heavy objects while cycling than while walking, because the upper body can be much more stable, less bobbing. The speed difference is negligible though, because you really don't want to outrun your severely encumbered braking.
In all seriousness, an eBike lets me get anywhere I need to in 20 minutes or so. As long as I wear a rain coat, only the front of my trousers get wet.
My bike has mudguards and panniers. I've gone with the Ortlieb classic panniers as they 'roll' at the top. Between two I can get one layer of a large supermarket trolleys worth of goods into them. Although the last minute pack of 9 loo rolls was more of a challenge but because the tops unroll you can just wedge them in.
It's very 'sensible' practical bike aimed squarely at the function of 'living without a car in a city'.
So you're saying you're Norwegian?
The trick is ample light colored linen clothing that covers as much skin as possible. It might seem counter intuitive to cover your whole arms and legs, but linen is actually very good at evaporating your sweat and keeping you cool while protecting you from the sun.
I live in Copenhagen.
(I haven't seen any e-mopeds here, only petrol ones.)
However the key is that cycle paths are legally off limits to mopeds (in the UK).
You'll also find parking a lot easier with a eBike.
It doesn't really increase the likelihood of killing cyclists but it does lower the likelihood of killing moped riders who are typically younger people
If the change in road infrastructure were to occur after the bicycles became a more popular mode of transportation, that would be fine, but doing it before makes the whole situation miserable, especially for those of us who simply do not have the option of switching.
I usually ride to work 4 days a week, and drive 1 day, depending on weather. I'm a driver but I still want proper separated bike paths. And I can't be the only one. People are scared to ride and I don't blame them. It's scary riding on a road with so many tired/oblivious/terrible/selfish drivers who actually don't follow the road rules even while driving a deadly weapon.
I can't understand why it's so difficult to provide facilities actually. Bike paths don't have heavy vehicles ruining them so need way less maintenance than normal roads.
A bike path for 2 way traffic only takes the width of a single car lane. You could just make one road per suburb one way, and there you go. I'm oversimplifying but I'm not a town planner, I'm just a dumb commuter.
At least where I live, it's laughable that you'd be complaining about a "bike push", as there are no real facilities for bikes at all. Just crappy unconnected paths that never get you to anywhere useful. You always have to go on a road with cars to get anywhere.
One by one all those reasons have be discredited. The EV was and is inevitable.
I've experienced that cycle several times where I thought "oh this will be big in 10-20 years" and had people say "No, reason x, y, and z all mean it won't happen." and then some discovery or change in the situation made x, y, and z irrelevant.
As a result I've trained my self to look at it "in reverse" as it were, which is to say "currently x, y, and z makes it impossible, what would have to change to make x, y, and z irrelevant?" and then look for changes in the margins. Things like "making oil from corn" is impractical when oil is $35 a barrel but quite reasonable when oil is $150 a barrel. Or 'cracking hydrogen and oxygen' with electrolysis takes more energy than you get back, so how can you exploit 'wasted' energy like sunlight to help it along? etc.
The important thing is to avoid trapping yourself into believing nothing will change that isn't already known. People I've met seem to do this all the time.
If you consider the space of all possible imaginable futures, there are parts of this space that are easily accessible to us, and there are parts that just don't seem to be accessible at all. For example, people were able to foresee the technical development of the internet decades ago, but we're not able to foresee how internet culture will develop with any accuracy at all.
It's like the philosophical idea that you can't accurately imagine what it's like to be a genius, because if you could, then you could become a genius yourself, just by imagining what a genius would do in each situation. If we could accurately imagine the future, then the future would already be here, to some extent. E.g. if I could predict what the next hit smartphone app would be, then I could just build the app myself and get rich.
That is the 'walking it in reverse' idea, if you start with this impossible idea (your own or someone else has presented it to you) and you want to figure out sort of that impossible idea might come to be real.
How many times have you had a junior person come to you with a bug, and you ask, did you check A, B, and C? And they will say, "I checked everything and it's all OK." It's hard to kick their brain out of the rut of thinking that everything is nominal. They make no progress because they're wasting all their mental energy arguing that everything is, in fact, OK.
In the inverse, people for some reason with software like to assume the natural state of code is to work. If you assume it doesn't and look for spots where it could fail then, you find the problems.
It's amazing what a state of mind can do.
Good guy, bit odd but a hell of a programmer.
(Wright's Law is surprisingly hard to google)
source: http://spectrum.ieee.org/tech-talk/at-work/test-and-measurem...
It's no more difficult than wanting 3 internal combustion engine cars - one for husband, one for wife, one for driving age children.
Whether a current electric car may ever turn heads or have gearhead fans a century from now, you never know, retro fashions are inscrutable from this distance.
[1] An example: https://transportevolved.com/2015/12/29/jay-leno-prepares-to...
[0]: http://time.com/4171329/drone-helicopter-ehang-184-ces/
You get 53 miles electric and 42 mpg. Unlike the i3 with rex you can go full speed on gas. And unlike the Toyota Prius plugin, the gas engine is purely an electric generator.
The car after incentives and dealer rebates is 20k. GM also offers 0 down 0% financing over 60 months.
It's a great commuter car as the 53 miles is more than enough to get to work. at work you charge up and you've got enough to go home. If you want to go on a road trip you still have the gas engine.
Regardless, these both seem like awesome cars and I'm excited that there are cars that give you both electric drive every day and the ability to go as far as you want using gasoline.
I imagine large cities will just say "no fossil fuel burning vehicles in the downtown core" and "taxis must all be electric" and those numbers will change dramatically. Fossil fuel cars will simply be banned in many (most?) countries.
That's not even accounting for the role self-driving vehicles will play, which will kick in long before 2040. There is no need for a full level 4 vehicle to ever be fossil fuel powered.
I don't think it's a stretch to imagine that most cars sold in 5 or 10 years will be at least hybrid electric. As battery prices continue to fall, it will make sense to include some electric capacity in addition to an ICE. So let's imagine a future where most new cars have a relatively modest 20 kWh battery with a range of more than 100 Km:
Most people, most of the time, drive short distances that will seldom require the use of the combustion engine and its fuel (many hybrids today come with special fuel tanks to prevent the fuel from "going bad"). Buying fuel will become an increasingly rare thing, and people will start to think of it as an expensive inconvenience. The current ICE fleet is reliant on a large, complex and expensive infrastructure to provide this fuel, and as people buy less and less of it, maintaining it will become less and less sustainable. As fueling stations start closing and the fuel prices go up (will they? I'm not sure about this point), it will become even more costly and inconvenient to fuel a hybrid, perpetuating the cycle.
At some point, the idea of a noisy, dirty ICE running on expensive, hard-to-get fuel will become so unattractive that it's no longer a viable option for most people. While this decline is happening, the cost, range and performance of all-electric will improve to the point where there really is no other reasonable choice.
It's also completely gameified me reducing my carbon footprint: I do everything I possibly can to avoid letting the gas engine kick in, mostly just because it makes me happy to win that game.
My predictions: - once electric school buses are available parents will push for their quicker adoption so their kids don't have to breath in the diesel and its waste products.
- since electric cars require less maintenance automotive parts stores and car service centers will be hit. No need to change oil every few k miles. No need change your muffler, transmission fluid etc. This will make ice parts availability to drop and price to increase.
- if Tesla is successful with its direct sales other manufacturers will eventually follow. Number of dealerships will drop
- some stores like Costco offer gas discounts for their customers. If they see that number of electric cars is increasing they will replace that with free charging spots for the best customers.
- electric cars will (presumably) not be required to do emission testing, which in turn will require states to lower number of emission testing centers. After a while it's possible that these emission centers will be few and far between, an emission testing will become even bigger annoyance that it already is.
- Once number of gas stations starts dropping all of the trucking companies that deliver gas will have harder time making profits. After few of them go bankrupt, gasoline deliver will be more expensive.
- Once sales of gasoline substantially decrease, refineries will have more trouble selling their products, so new refineries will not be build. This will again increase price of gasoline but also the price of heating oil.
- After electric cars hit 10% of the market, ICEs will be considered a "new smoking". Peer pressure will keep growing, having an ICE will be uncool.
- once oil companies stop being as profitable people on the stock market will start moving their money to other stocks. This will force these companies to stop their dividends, which in turn will make them even less attractive.
- states will have to increase taxes on gasoline to make up for the lost revenue. Eventually electric cars will be taxed in some way but before that happens gasoline will become even more expensive.
- once oil production is in decline because of decreased demand, countries like Russia and Saudi Arabia will have to deal with huge economic problems that could lead to crash of their economies. This will make access to oil even harder raising the price of gas even more.
- electric cars will lower cost of batteries, which in turn will make them a better solution for power tools, lawn mowers etc.
I think this is why the Convenience stores may (again) out last the pumps outside them. On long road trips, bathroom breaks and snacks/food will still be useful, even in an electric future.
As you also note, the new convenience store is the supermarket and the supermarkets are also best setup to electrify large parking grids as the transition happens.
Interesting! So say we convinced the taxi lobby to demand that all ridesharing vehicles were electric as a nakedly protectionist measure, then a year later convinced citizens to pass an "even playing field rule," we might dramatically accelerate electric car adoption.
I think I'm being sarcastic, but I'm not 100% sure...
Battery swap, rather than super-charging, would also solve this problem.
I get that the prices will come down, but they're not likely to undercut the Honda Accord/Toyota Camry level (which are themselves not even the bottom-of-the-line cars) and certainly not going to undercut the 6-year old ICE commuter car.
A used Chevy Volt can be had for about ~$12k (depending on the market), and will cover most common trips with electricity only. But still let you burn gas to get to Grandma's if needed. Minivans are coming out this year that do the same -- in four years, those will be around ~$15k.
That's what folks are talking about. In the future, every car will be either fully electric (Tesla, Bolt) or fully electric with an extra gas-engine backup just for long road trips (Volt, BMW i3).
There probably won't ever be a conventional gas-only level 4 vehicle, because by the time level 4 becomes common, few people will want a conventional gas-only car at all.
I commute in a LEAF and love it and would absolutely consider a plug-in hybrid as a next car (or another LEAF).
Model 3 (or Chevy Bolt) price sticker is reasonably within the range of currently best-selling sedans (Toyota Camry, Toyota Corolla, Honda Civic). If the electricity costs are $0 (public infrastructure and Tesla supercharger network), the 5-year total cost of ownership figures start adding up in favor of electric vehicles. Another variable is service costs - those oil changes can add up, whereas an electric vehicle can reasonably go without a service center visit for a year or more (Tesla's 12-month service consists of washer fluid top-off, wiper replacement and battery replacement for key fob http://www.teslarati.com/what-goes-into-tesla-model-s-annual... )
So while the initial price sticker might be higher, TCO figures favor electric for most people.
You are strangely focused on the NOW when we are talking about 2040 ... which is 23 years from now.
The much fabled EV1 apparently cost GM around 250K apiece [1]. So while it's easy to criticise them and other big automakers for resisting electrification, the tech really wasn't ready until very recently. They basically sat back and left someone else take the risk before jumping in. And now their electrification goals seem pretty aggressive considering the infrastructure.
[1] https://www.hemmings.com/blog/2013/06/27/cars-of-futures-pas...
What they should have done is to say, "This is the technology we have to work with today. How can we build a compelling vehicle with it?" That is, in fact, exactly what Tesla did (and continue to iterate).
That's why Tesla started with a $200k+ boutique vehicle and have started to work their way down market. And it might have something to do with the relative market cap of Tesla and GM.
EDIT: in some ways it is precisely _Tesla_ that has let someone else (their investors) take the risk.
Everyone else dabbled in EV. GM actually made seriously good products. Their dealers are shitty at selling them, and the volume of production is low -- but that is for concrete reasons: battery supply, cost of production, lack of demand.
I have a Volt on order. It is a seriously amazing machine. Very few compromises, very much like a best-of-both-worlds scenario. Tesla-fans and EV purists diss it, but it is in many ways the perfection of the hybrid concept and leaning towards EV. I'd love to go pure EV but there isn't a product out there for me yet.
Luckily GM of all companies has something to sell me.
GM only made just over 1,000 EV1s, they were practically hand-built. Such a small run gives them the same kind of cost structure as boutique sports cars.
Let's do the future-perfect exercise. Let's imagine looking backward from a point in history when 90% of new vehicle sales (by unit) are EVs.
What happened in those years? 1) power cells (the component parts of batteries) became genuine microelectronic parts with fine structure in their insides -- deep submillimeter gaps between anodes and cathodes. That understanding about their manufacture put their cost-per-watt on a Moore's Law kind of curve about nine years ago.
2) vehicles routinely get field upgrades to their battery packs.
3) there's major competition between battery remanufacturing plants and stationary power storage makers for the used battery packs, complete with spam and robocalls begging for the old batteries.
4) the power grid companies, in every US state except Wyoming, have now integrated their distribution systems so there's distributed control over time-shiftable load. In other words, EVs have grid smarts in them and charge when the spot price per kWh is lowest in their neighborhood. It's an auctioning service.
5) in Wyoming there's a pirate electricity auctioning service available via encrypted wireless and Tor to work around the pro-coal lobby's laws.
6) truck stops, everywhere except Wyoming, now have megawatt-level charging facilities. Trucks don't use I-80 to get across the Continental Divide any more.
7) Public housing projects have been compellled to offer EV charging. Apartments without EV charging facilities are now considered substandard. Their slumlords have to discount them at least $200 per month (in 2017) dollars to find tenants.
8) An open standard -- called "STREETNET" -- for vehicle-to-vehicle communication has developed with multiple communication channels. An important channel is modulation in brake-light and running-light intensity. That means a vehicle can announce its status to the vehicle behind it.
9) STREETNET has virtually eliminated compression-wave congestion on limited access highways, by helping drivers and autodrive systems see the big picture and synchronize their speeds and acceleration.
10) Commuter rail is all electric and autodriving, and has been for five years.
Random vehicle IDs are probably vital to acceptance.
Smooth, controllable, quiet, but surprisingly-strong acceleration, coupled with the fact that you never have to go to the gas station, make an EV with >200 miles of range a better driving experience than a gas/diesel vehicle, regardless of eco-benefit.
A corollary of this is that residential solar will also become much more attractive. An EV adds maybe $50 per month to your electricity bill; that additional demand makes the math for a solar installation really obvious (particularly with net metering).
So until it becomes a true luxury car, I will stick with petrol engine luxury cars.
Tesla is still just a "tech demo. " Like you pay a lot to try out a prototype kind of thing.
Kind of how buying a Hololense dev kit is expensive. It's not the quality of the lense that makes it expensive but rather the new tech.
I wonder if Model 3 will change this.
The 1-2 EV stations in modern garages might cut it while there's hardly ever even one EV parked there, but if adoption outpaces charger installation, they're in for a rough time.
If just three people are in line for a public charger, each needing 30 minutes with it, that's a 90 minute wait.
This is also why I think nobody should bother building EV chargers anymore unless they are at least 350 kW (the latest standard for CCS). Because once they are built, they'll probably stay the same for at least 15 years. 50 or 100 kW chargers will seem useless in 15 years.
Agreed it kind of sucks for a full recharge though. On the other hand I already see people fueling the bare minimum to reach another gas station for brand loyalty/affiliate program rewards.
I calculated and hardly ever broke 90mi on a commute day. For non-commute days, I can do 300mi on a trip (150 roundtrip), but we have our minivan for that - and it's rare.
I would easily buy a 125mi range vehicle (Bolt, Ioniq, eGolf).
The "2nd car only for commute" is a big ripe target market, and most folks have a < 100mi daily commute range.
I think most folks have figured out that hybrid/electrics are simply lower maintenance. The battery failure/replacement fears have essentially been debunked, and the lack of transmissions/clutches/differentials mean less stressful trips to the mechanic.
(Just to be clear, I'm not making any claim here about their level of uptake)
To be fair, that's what you get with every EV without any engineering effort (a very, very early prototype of the eSmart I was driving, i3).
https://www.youtube.com/watch?v=PDoItji6Gdo
These people are important influencers and they are not making the sad 'Top Gear' jokes about electric cars. Check out how the Renault electric sports car is 'sold' in the above video, why would you buy a conventional hot hatch when you can have something with serious performance that is pretty handy for getting the child seat and baby gear around? These motor journalists also seem pretty pleased with the quiet, the 'brrm brrm' noises are not important unless that is all a car really does, along with lame power slides around a deserted level airfield.
My favourite phrase learned from electric car journalism is the 'guessometer' the range the car apparently says it has.
Electric cars are great however I think that autonomous and electric cars will make roads safe again, so pedestrians and cyclists can use the road without fear of instant death. We will be able to lower the arms race of driving around in tanks, therefore electric bikes will make a lot of sense as will pure pedal bikes. My estimate is that the liner for the front 'trunk' on a Tesla weighs as much as my bicycle so there is a long way to go before I upgrade to a fancy electric car to 'go greener than I am'.
For what it's worth, even they are slowly coming around to electrics.
https://www.topgear.com/car-news/james-may/james-may-his-new...
Not sure if party decree or self driven but very impressive.
Small incentives like congestion charges can greatly impact public behavior.
From my perspective, a big loser would be Toyota. They seem to have invested heavily in hydrogen fuel cells, which appears to be the wrong technology for a number of reasons, and squandered the significant lead they had with the Prius. It's too bad; they were among the first to mass produce automotive battery packs. A plug-in hybrid Lexus RX would compete directly with Tesla...
The current Prius is a much better car, but marginally more efficient than evan a Gen2. They sold a hybrid minivan in Japan a decade ago, but still hadn't brought it to the states (we got the Prius V instead).
Hell even the Chrysler beat them to a usable hybrid minivan (Pacifica PHEV even with a better EV range than a Prius Prime).
Why would I choose a Prius when I could choose a Bolt, Ioniq, eGolf or others - all of which could support my 70+ mi commute easily with overnight charging.
(To be fair, it's amazing that GM managed to dig out of that rabbit hole, as that was most of their "lost 90s" in R&D, but maybe not surprising it took near bankruptcy to do that.)
[1] http://carsalesbase.com/us-car-sales-data/toyota/toyota-mira...
I might also lump Nissan in with the losers -- what have they done since the Leaf, which is now totally outclassed in terms of range?
I'm actually more optimistic about Ford and GM, which are investing heavily in electric cars and self-driving cars, than I am about the Japanese brands.
I say this as a happy Toyota Prius owner. I like my car, but I think electric self-driving cars are where the money is going to be in the future, and I wish Toyota would make a better effort in that area.
The really big loser among the big boys in Japan is Mazda. They are reportedly just getting into hybrid vehicles in 2019 and while they are also planning a "bespoke" electric vehicle, I really don't think they are taking it seriously (could be wrong).
Mitsubishi has a production electric vehicle that I've seen from time to time in Japan. Again, the Leaf dwarfs it in terms of popularity (at least out where I live), and I'm still not sure what to make of it. I've never seen one when casually looking into a Mitsubishi showroom, and I don't think they really see it as mainstream. If you go to a Nissan showroom, though, the Leaf is front and centre.
It will be interesting to see where it goes. I personally predict that Japan, as a nation, will go electric far before the US does. The distances that people drive here are typically quite short because the speed limits are very low. A lot of people would consider 100km to be quite a long drive. I've also seen charging infrastructure pop up here (mostly in luxury hotels, but also in many businesses and apartment buildings -- alas not the one I live in).
Part of the problem is that few Japanese homes have garages (I mostly saw carports, if anything), and few Japanese apartments have any kind of guaranteed parking.
Where are you going to put the charger in Japan? Are you going to install it outside where it will be rained on? If you live in an apartment, are you going to buy a huge extension cord and drag it out to where you parked your car a few blocks away? I suppose the main advantage in Japan is that the charger is very unlikely to be stolen, but still.
Keep in mind that I live in the countryside. Large cities have serious parking challenges. I'm not surprised that San Jose has lots of electric vehicles on the streets (more than Japan), but that is hardly typical of the US. Overall, both countries have very little penetration at this point.
As for hybrids, the top 2 selling cars in Japan last year were essentially the Prius with over 300k vehicles [1]. Admittedly, there isn't anything else making a big impact, but that's still quite a large percentage of the overall market.
[0] http://electriccarsreport.com/wp-content/uploads/2015/02/cha...
[1] http://www.best-selling-cars.com/japan/2016-full-year-japan-...
The commercial chargers are all waterproof, with connectors rated IP67 or similar, usually with a drain outlet for any water that does somehow manage to get in the connector. The cables are similarly rated.
The lowest rated cable I own is the "home charge" kit, which takes a normal (UK) 3 pin wall socket and imitates a "proper" EVSE charger for the car with a J1772 connector at the car end. The wall plug bit I currently solved by fitting a waterproof outdoor socket and use that when I need to charge at home.
At some point I should take advantage of the government grants for fitting a proper home charger akin to the commercial ones...
One thing to keep in mind is that in Japan the average age of vehicles is very low, so things could change almost overnight. Japan can be slow to adopt some things but once they do they do it en-mass.
[0] http://freakonomics.com/podcast/why-are-japanese-homes-dispo...
Japan has a vehicle per capita of 591 cars per 1000 ppl vs the US 797/1000, which is a lot lower but also far far from "nobody has a car".
I suspect that Nissan USA management remembers the outcome from the last time a Renault vehicles were imported into the US [0].
If X becomes cheaper, the right thing to do (IMO) is to return the savings to the people, not to spend the surplus on Y or find a new Z to spend it on. If the people want to choose to spend more on Y or Z now that they've seen the savings on X returned to them, that's perfectly rational possibility, but shouldn't be automatic.
That's exactly the point I was making.
Not exactly amazing.
There will be an interesting point in time, when electrical cars are just a fraction of the market, but prominent enough, that they are considered desirable by a large part of the buyers. Once this point is reached, there will be strong pressure on combustion engined vehicles, as they might still sell based on peoples needs (mostly price, range) but no longer the fancy desired technology which causes people to buy the more expensive and fancy models.
Electrical cars do not only add their own storage capacity to the grid
I was not aware that this is happening in the USA now.Bad habit to evaluate the reality of a thing by how many & what kinds of people say it's "coming."
And this basic skepticism is well-deserved here, because there's no way hauling around your own 2-ton machine to get places, is ever going to be sustainable, no matter how it's powered.
Include things like, no oil to change, cheaper to fuel up, awesome giant touchscreen for nav and control, great all wheel drive option, extra trunk space in the front, low center of gravity, it really all starts to add up to awesome.
It was the safest car in its class when it came out but I thought cars in other classes were safer, and even there other cars had surpassed it now? E.g. it doesn't have stuff like external airbags for pedestrians like Volvo does.
Soon? You mean, possibly, in the next 10 years soon.