Hello everyone! We’re working on some glitches with how this website notifies subscribers each time we put up a new post. As we get this figured out, I wanted to make sure you knew about our latest post: (Self) Driving our way into the future. Open it using this link or just head on over to ev4corners.org. It’ll be the post just below this one!
If you did get this email and you have a couple seconds, please drop us a note to say you got THIS notification.
We cannot shape the future to our needs if we cannot see where the technology is headed. What are the benefits of driverless autonomous vehicles (AVs), assuming that they develop as the futurists have suggested
Several additional vehicles are now promised for the Earth Day Ride-n-drive event at the La Plata County Fairgrounds, 10:00 to 2:00 PM, but the Lucid Air has been delayed until the 2023 Fall Ride-n-drive in Telluride. The models to be added include the Hyundai Ioniq 5, the Kia Niro, and the Porsche Taycan.
Or in long form: A One Year Review, Ford Mustang Mach E, All Wheel Drive, Extended Range, Living in the Four Corners Area
Our first EV, a 2017 Nissan Leaf, taught us we loved driving an all electric car, but the Leaf’s range was too short (135 miles). Our second EV, a 2018 Chevy Bolt, confirmed long range road trips were possible, but we wanted a faster fast charging rate. With our third EV, the Mustang described in the title, we’ve found our best fit EV (short of an electric AWD pickup truck or true SUV). The short story – while it’s not the perfect car for us, it’s nice enough that we won’t mind waiting until the perfect EV SUV at the right price point comes to market.
Why the Mustang Mach E?
I’ll start with the short comings of the Bolt which were enough to get us to pay 50% more for a car than we’d ever paid before. The Bolt cost about $40k off the lot. The Mustang cost about $60k. (Both prices not including the still generous state and federal tax credits we were able to benefit from.)
The Bolt’s EPA range was about 230 miles and the Mustang’s is about 270 miles. This is enough to give a larger margin of safety that you will make it to the next available fast charger on a long road trip. However, it’s not quite large enough that you could skip a fast charger in areas of the country where chargers are sparse.
The Bolt had a maximum fast charging rate of 50 kW. The Mustang’s max charge rate is 150 kW. This means fast charging stops in the Mustang are 30 – 45 minutes long. In the Bolt, they were 45 – 75 minutes long. Both cars got us from Durango, CO to northern lower Michigan (our longest road trips to date), but the Mustang meant less time sitting in the Walmart parking lots where so many fast chargers are now located.
The Mustang has more cargo capacity, by just enough that it makes a difference.
The Mustang, with its higher price point, is just a higher quality car. The cabin is very quiet. The ride is exceptionally smooth. The sound system is better. The seating is more comfortable.
Trotting Around Town and Country Close to Home
As a day to day cross-over, the Mustang does great for active mountain living. The range varies from about 170 miles (at 100%) during the coldest days of Durango area winter. This year and last, that has been low single digits at night and 20-30 degrees F during the day. Even at its lowest range you’ve got enough miles to get to the next fast chargers from Durango to the east (Pagosa Springs, Wolf Creek, Del Norte), the north (Purgatory, Ouray, Montrose), northwest (Telluride), southwest (Gallup) and southeast (Pagosa Springs, then on to Santa Fe.) And if you can get to all those places, you can also get beyond them with the current fast charging infrastructure. The obvious piece missing for those in Durango is Albuquerque. Hopefully New Mexico will find a way to get a fast charger along Hwy 550 soon! For now, the easiest way is to go down through Santa Fe. Or stop at Aztec and have a long lunch at Rubio’s while charging at Aztec’s town level 2 charger.
In summer, our 2021 Mustang gets 240 to 275 miles depending mostly on outdoor temperature and how it’s being driven. Higher speeds and lots of quick accelerations drive range down the most in warmer conditions.
Durango Truck Accessories installed a Curt hitch receiver on the back so we can use our Kuat bike rack to carry two bikes. This has served well for both local and long distance trips. When the rack is on, we have to disable the safety feature which automatically hits the brakes if the car’s cameras see something behind the car when backing up. The disabling is easily done with a couple taps on the touchscreen inside the car. We haven’t noticed any drop in the range with the fully loaded bike rack on the back.
The Mustang’s ground clearance is 5 inches. That’s almost four inches shorter than a Subaru Outback. The ground clearance has been no problem on graded dirt roads. I wouldn’t hesitate to take it on rougher roads if I knew I could drive around the rough spots. However, I wouldn’t take it up anything really rough and rocky.
On snowy days the car has done well on plowed roads and it handles icy conditions really well. I backed it into a bank of heavy snow 6 – 8 inches deep to challenge it and the all-wheel drive kicked in immediately. The front and rear axles quickly alternated to inch the car back on to the snow-packed driveway. This was despite the summer tires the car was delivered with, which are not recommended for use in the snow. I didn’t even know summer tires were a thing! We’ll replace them with all-weather tires as soon as they wear out.
Camping – not Kidding
I took the Mach E to visit friends in Tucson, AZ and then spent a night camping in it on my own down at Patagonia State Park. This is mainly because two people wouldn’t fit in the back for sleeping. I’m 5’10” and on the thin side. I just fit, a little curled up and sideways. The back seats fold down very close to flat. It was actually very nice for one! I’d plugged in at the RV part of the campground because I needed to charge there overnight. I could’ve had the heater on all night if I’d needed it. The AWD extended range Mustang comes with a glass roof. I was lucky to be able to watch a full lunar eclipse through the roof in the middle of the night while lying cozy in my sleeping bag.
The only trouble with camping was I used the key fob to close the rear gate once I got in and to open it to get out. The car would honk once each time I opened the rear gate. I’m sure my RV neighbors didn’t appreciate that when I went for midnight and early morning outings.
Galloping Out on the Open Road
Long distance road tripping in the Mustang is great. The car’s comfort, quiet cabin, super smooth ride and very good climate control help take the suffering out of long hours in the car. Ford’s Trip Planner (which you can use from an app on your phone or through the navigation screen of the big screen on the dashboard) generally does a good job of choosing mapped routes with chargers identified at the right intervals. We’ve driven it twice to northern Michigan, to Flagstaff and Tucson, Arizona, to Santa Fe and Albuquerque and to the Denver area both by way of 160 & 285, and up through Grand Junction then east on I-70. The car’s 2 – 3 hours of driving range and 30 – 45 minutes per fast charge are a perfect balance for us. After 2 – 3 hours we’re both happy to exit the car and walk around a bit, even if it is just at a Walmart!
Clouds on the Horizon?
There has been a recall on our model-year for a problem which has resulted, in a small percentage of cars, “bricking”. In this case that means giving a “Stop safely NOW” message before completely and suddenly losing all power. It was not a comfort to learn of this problem just as we were preparing to leave for our second trip back to Michigan. Since then, a safety recall has been issued, which resulted in a “fix” which consisted of a software update. This isn’t exactly comforting either, because the problem was found to be with the electrical system.
Currently on the Mustang Mach E Forum, they have the following recommendations:
The only place we’ve found these recommendations is on the www.macheforum.com. (See: Stop Safely Now (HVBJB): Mach-E Owners Biggest Fear – Facts and Info Thread.) We never got any official communication from Ford with these recommendations. We also learned it is a real pain in the butt to jump start the low voltage battery (LVB)! It involves first using jump power to just get the frunk open, and then you have to remove these big luggage compartment covers which involve unscrewing a number of awkwardly located screws so you can access the 12 volt (low voltage) battery. And the reason they recommend backing into parking spots is that it’s more expensive and needs a special type of tow truck to tow a Mach E backwards.
So far, no problems with our Mach E, but we remain prepared to deal with it if this problem occurs. We figure it’s part of being early adopters, and Ford has in all other ways treated us well and built a wonderful EV. Recall problems are not uncommon with fossil fuel powered cars either.
Mancos is a small town with a diverse populace, part tourism hub – gateway to Mesa Verde NP – part art colony, and part ranching community. The town’s premier annual social event is Mancos Days, which will feature a main street parade on the 30th of July, followed by a car show at Boyle Park (https://www.mancosdays.com/). EV owners are being encouraged to bring their EVs to join in the fun, by none other than David McNeil, Colorado’s pre-eminent EV activist (normally ensconced in Denver) returning to his hometown (Mancos HS class of 1962!) for the event. If you might be interested, contact David at [email protected], so he can organize EV participation.
We’ve gotten out of the habit of posting the Denver Electric Vehicle Council (DEVC) monthly newsletter. We want to get back in it! You’ll find the pdf below.
There are a couple of interesting articles in this month’s DEVC issue on batteries – new advances in energy density, an update on battery recycling, and a new EV (Lucid Air) which touts a battery with higher energy density than Tesla’s (reprinted from ev4corners!)
For a comprehensive overview of why battery recycling and technology improvements are so important, see David Roberts’ (Volts) story on problems related to minerals needed for the clean-energy transition. You don’t have to be a scientist or economist to understand the information provided in this article. Mr. Roberts does a really good job of breaking it down for those not as technically minded, as well as giving plenty of concise information of interest to those who are.
The DEVC newsletter also includes some articles on changes to the schedule in retiring some of the San Juan Generating Station’s coal-fired generation units, which are relevant to us in the Four Corners area (San Juan Generating Station is located not too far west of Farmington, NM.)
Enjoy the newsletter! Better yet, go to www.devc.info and sign up to receive it yourself. DEVC is the Colorado affiliate of the national Electric Vehicle Association. They are one of the oldest national electric vehicle volunteer organizations. “The Electric Vehicle Association educates and advocates for the rapid adoption of electric vehicles.” To join them, and DEVC, to https://www.myeva.org to become a member. When you sign up, you can choose DEVC as your affiliated chapter.
EVs are often designed by the same thinking that turned carriages into “horseless carriages” without fully incorporating the advantages of automobiles. What EV advantages can be improved by redesigning the automobile? Send us your ideas for our design contest.
Part 1 discussed what is required to use the home backup feature sold as an option for the upcoming Ford F-150 Lightning pickup truck. While researching that article, I spoke with Dominic May, the Energy Resource Program Architect at the rural electric cooperative (co-op) serving my community in the southwest corner of Colorado, La Plata Electric Association (LPEA).
His answer to the F-150 Lightning question was pretty simple; you can read about it in Part 1 of this post. What was more interesting were the incentives LPEA may make available for all their EV-owning customers. LPEA is now gaining experience with their first-in-the-state electric school bus as a Vehicle to Grid (V2G) source of peak-hour energy. Now they’re turning their attention to possible V2G incentives for all their EV-owning customers.
That’s the dream of V2G, that we can multi-purpose this big fleet of batteries out there in our service area.
Dominic May, the Energy Resource Program Architect
What is V2G again?
V2G uses a specific kind of charger, a bi-directional charger. It allows the grid to fill your car’s battery with electricity. It also allows, at pre-set times of the day, the grid to pull electricity out of your car’s battery. Under a V2G program, the electric company doesn’t just provide electricity to you. You also provide electricity back to them at the specific times when it saves them the most money: during peak energy use hours of the day.
How does the little bit of energy my EV can provide save an electric company enough money to make V2G worth it to them or me?
In southwest Colorado, the Tri-State Generation and Transmission Association owns and maintains the large power plants and transmission lines that bring electricity to all the area electric co-ops. Tri-State charges LPEA a monthly demand charge of $20 per kW of peak demand. That means every month, Tri-State looks at the one hour of highest demand from the LPEA service area and charges $20 for all the kilowatt hours delivered during that hour. If LPEA as a whole uses 100,000 kW during its highest hour in a month, Tri-State charges them $2,000,000 for that month’s demand charge. That is addition to the price LPEA pays at lesser rates for electricity supplied during all the non-peak hours.
LPEA is a winter peaking, evening peaking utility. It’s pretty much never fully dark until 5 PM, even in the depth of winter. Our peaks usually happen between 6 and 7 PM. It’s about an hour after dark, everything’s gotten quite cold and all the heat is coming on, everybody’s home, dinner starts getting cooked, et cetera. All the devices in the house come on.
Dominic May, the Energy Resource Program Architect
If your 80 kWh battery EV rolls into the garage at 5:30 PM with 60 kWh left in the battery and plugs into a V2G charger, it could supply 40 kW to the grid between 6 and 7 PM to allow having 20 kWh left in the battery in case of a night emergency. (Most EVs on the road today could get 60 – 80 miles on 20 kWh.)
The EV could then easily regain the 40 kW it sent out by more slowly pulling it in overnight, when electricity rates are lowest. While you ate dinner, relaxed at home and then slept, you helped save your electricity provider 40 kWh x $20/hr = $800. Since electric co-op members include all your neighbors and everyone in their service area, you’ve helped everyone in your community save money. Your electric co-op or company will want to find a way to make that worth your while.
LPEA recognizes people participating in a future V2G program would need to expend some money to be able to take part. Bi-directional chargers are significantly more expensive than your basic Level 2 home charger. EVs are still more expensive than comparable petroleum-fueled cars.
LPEA is working on creating a battery storage program for customers with home back-up batteries, like Tesla Powerwalls or LG batteries. We hope to learn from that and extend the same incentives to customers who want to participate in a V2G program. The V2G program will need to include an aspect controlling the time the customer is willing to participate, and how much of their battery capacity they are willing to contribute each day.
We want to pass as much of that back to the customer as we can. We’re considering upfront rebates for V2G equipment purchased and annual credits based on energy sent back to the grid, things like that.
Right now, we have the small demand charge of $1.50 per kW we pass through to non-time-of-use rate members, but that’s obviously not reflective of the $20 the whole membership pays. Equity is a big consideration for LPEA. We will need to balance the price signals we offer to the V2G participating members so we don’t punish lower- and fixed-income members with electrified homes.
Dominic May, the Energy Resource Program Architect
If you live in LPEA’s service area, keep an eye out for upcoming battery storage programs offerings. If not, contact your local electricity provider and ask them if they have any plans to implement a home battery storage or Vehicle-to-Grid incentive program in their service area. Let them know you’d be interested in participating.
People served by rural electrical co-ops can have a strong influence on the board members of those organizations. Encouraging them to look into these types of programs may be just the push they need. Investor-owned utilities also might be influenced by their customer’s interest in taking part in V2G programs. If you are served by an investor-owned utility, such as Xcel Energy (CO), PNM (NM) or Rocky Mountain Power (UT), check their website or give them a call to find out what their plans are. The Navajo Tribal Utility Authority (NTUA) is unique as the largest multi-utility enterprise owned and operated by an American Indian tribe. If you live in their service area, give them a call to find out if they are investigating how they can use distributed battery storage resources to bolster their electricity distribution system.
When a V2G or home battery program might become available in your neighborhood: Two caveats
Most EVs currently on the market and on the roads don’t have the internal hardware that would enable them to participate in V2G programs, even if they do install a bi-directional charger at their home. While V2G programs are currently operating in Europe with EVs capable to participate, car manufacturers have not provided US models with that functionality yet.
Administrative hurdles remain to be solved before LPEA can actually implement a V2G program. Tri-State policies may need to modified so both Tri-State and the co-ops it serves can use customer-owned batteries to their full potential.
Word on the internet has it that Ford will open their ordering process for the F-150 Lightning this Thursday, January 6, 2022. It seems a good time to do a deeper dive on Ford’s home backup power option available for their much-awaited electric pickup truck.
This is Part 1 of a two-part post. Part 1 discusses the specifics how much this option will cost, how it will work, and can it live up to Ford’s promises.
Part 2 will discuss other things you can do with a big electric truck’s battery, to both help your community and save some money for yourself. It’s called Vehicle-to-Grid (V2G) and it could be coming to your neighborhood sooner than you think.
Here’s the home backup promise on Ford’s website:
In Part 1, each part of this promise will be discussed. In Part 2, we’ll learn how one SW Colorado rural electrical co-op plans to work with customers wanting to use the back-up power feature to provide benefits not just to EV owners, but to all co-op customers.
The Three Things You Need to Use the Ford F-150 Lightning as Backup Power For Your Home
Extended Range Battery
The backup power option is not available for all F-150 Lightning models. In particular, it will not be available on their lowest priced PRO model, which has a base price of $40,000. To take advantage of the backup power option, you must purchase an extended range battery model, the lowest cost of which appears to be the $74,000 XLT.
80-amp Ford Charge Station Pro
Ford’s website indicates the 80-amp Ford Charge Station Pro comes standard with extended range battery models. The Charge Station Pro is an extra piece of equipment which will allow your F-150 Lightning to both draw electricity FROM the power lines feeding your house to fill up the truck’s battery AND allow it SEND electricity INTO your house when those power lines are down. It is what’s known as a bi-directional charger. It allows peak charging power of 19.2 kW, much higher than the typical 7 kW a home Level 2 charger provides.
The 32-amp mobile charger which comes with all the F-150 Lightning models will also be included. This charger sends electricity in just one direction: from a power outlet to the truck’s battery. The charger is delivered, coiled neatly in a canvas travel case, as an electrical cord with a charge plug on one end. At the other end there is a choice of two adapters, one you can use to plug into a regular 120V outlet and another you can plug into a 240V outlet.
Good for emergencies away from home, too.
You can use the 32-amp charger wherever there is an outlet, from a regular 120V outlet on a friend’s porch to an electrical hook-up at an RV campground, which delivers as much power as a Level 2 charger.
Carrying this mobile charger in the truck with you could come in handy if you wind up stuck on any road that has closed due to winter storm conditions (as recently happened in Virginia) or an accident. If you can get off the highway, you could plug into any wall outlet (120 V) and heat your vehicle without running down the battery until traffic was able to move again. If you have an F-150 and a full battery, other EVs could plug into your truck’s 120V outlets to run their heaters until traffic gets moving again.
Electrical work done at your house
To use the home backup feature, you will need to get a professional electrician to install the 80-amp Ford Charge Station Pro and an automatic transfer switch at your house. The transfer switch automatically disconnects your home from the grid when the power goes down. That is necessary so your F-150 does not feed battery power back out on the power lines at your house during a power outage, which could cause a severe hazard to power company workers working on the lines.
You will need an 80-amp circuit installed to serve the Charge Station Pro. This won’t be a problem for most homes, but some with older electrical systems may need to upgrade their service with their electric company to carry that many amps.
In May 2021, Ford announced they had partnered with a company called Sunrun to:
facilitate the installation of Ford’s charging stations and energy integration system for residential customers.
At Sunrun’s website, they list all of the Four Corners states except Utah as states where they operate. I am not aware if Sunrun currently operates in the Four Corners area. Before your F-150 Lightning order goes to production, you’ll want to confirm what company, Sunrun or a solar contractor local to you, would be able to work with you to install the 80-amp Charge Station Pro and install a new, or modify an existing, home solar system.
Does your electric company get involved in any of this?
No. It is basically the same as if you were adding a new electric appliance to your home. You usually don’t have to notify your electric company to do that. However, the electrician who does the installation work at your house will check to be sure your current electrical panel and service can handle the amount of power the F-150 Lightning would both pull from and push into your home’s wiring. They will let you know if any upgrades need to be made, and if so, how much they will cost.
Can the F-150 Lightning really supply my home with electricity for up to 10 days?
Yes. Ford recently announced the F-150 Lightning extended range battery will have a capacity of 131 kilowatt hours. For comparison, a typical Tesla home battery used for home backup power holds about 13.5 kWh. However, remember any energy your home uses out of the truck’s battery will decrease the number of miles the truck will be able to drive before getting re-charged.
If your home has solar, you may be able to modify your electric service so the solar array could send charge into the F-150 Lightning’s battery during a power outage, along with powering your other household electric needs. Your solar array would need to be sized to provide enough power to cover both your home’s needs and have power to spare to supply the truck with extra energy to allow you to drive it around during the blackout, if needed.
When Will I Get My F-150 Lightning?
Ford received more than 200,000 reservations for the Lightning, which were made at a cost of $100 each. Starting in January 2022, they will begin sending invitations to the reservation holders to order at staggered times. If the system works as it did for the Mustang Mach e, it will cost $1,000 to place an order. Once the order is placed, it will likely take 6 months to a year before you actually get the truck. According to communication sent recently by Ford to reservation holders:
Now, this kind of demand means many of you won’t get a 2022 F‑150 Lightning™ truck, but rest assured we will hold your reservation so you’ll have a chance to order a future model year.
Ford communication to F-150 Lightning reservation holders
Stay tuned for Part 2 of this post. I plan to get it published in a week or two.
Part 2 will discuss other things you can do with a big electric truck’s battery, to both help your community and save some money for yourself. It’s called Vehicle to Grid and it could be coming to your neighborhood sooner than you think.
Durango, Colorado’s 9-R school district will soon be the owner of a brand-new, all-electric Bluebird bus. Thanks to a grant from the Regional Air Quality Council’s ALT Fuels Colorado program and southwest Colorado’s La Plata Electric Association (LPEA), the school district is getting the bus entirely for free. This was made possible by the state grant funding, which covered much of the $210,000 difference between the cost of a diesel vs electric bus, but also by LPEA’s initiative in penciling out how both they and the school district could benefit from nascent vehicle-to-grid (V2G) technology.
It will be the first use of V2G technology with a school bus in the state of Colorado. LPEA aims to demonstrate how electric school buses can provide benefits and savings to everyone in their service area. I spoke with Dominic May, LPEA’s Energy Resource Program Architect, to learn more about the bus, V2G and the benefits.
V2G gives LPEA a return on their investment
LPEA contributed about $150,000 to cover the remainder of the cost of the bus and to install a 60 kW bidirectional charger at the school district’s bus barn. Bidirectional chargers are at the heart of V2G technology. They take the AC power provided by LPEA’s electrical grid and turn it into DC power which fills the bus battery. They can also go the other way and change the DC power in the bus battery into AC power, which can then be sent back into LPEA’s electric grid.
The bus and the bidirectional charger are now owned by the school district, but they have an operational agreement with LPEA which allows LPEA control of the battery for the coop’s benefit.
V2G is the big reason I got interested, in addition to finding a project that could be entirely free for the school.
Dominic May, Energy Resource Program Architect
How can the school district and LPEA both use the same bus?
We have an operational agreement that we will run the battery to perform energy arbitrage in the background. The school district will never notice we’re doing it but will always charge at our cheapest off peak rate.
Dominic May, LPEA Energy Resource Program Architect
The bus battery holds about 175 kWh of energy. It will charge overnight and during mid-day when the bus is back at the bus barn. On the commercial time-of-use rate LPEA provides, these are the cheapest times of day to use electricity.
After it returns from its morning route at about 9 AM, the bus will need about 3 hours to refill the battery. It arrives back from its afternoon route at 4:30 or 5:00 PM. LPEA’s evening peaks usually occur at about 6:30 or 7:00 PM. They will recharge the battery up until the evening energy use peak starts ramping up. As the peak 15-minute period approaches, LPEA will signal the bus battery to push 60 kW onto the grid. (60 kW is the maximum rate the bidirectional charger can discharge at.) When the peak is passed and peak rate time is over, the bus will continue recharging into the night.
What’s in it for LPEA?
LPEA’s supplier, Tri-State Generation and Transmission Association, charges LPEA a monthly demand charge based on their peak monthly usage. For every kilowatt LPEA uses during their peak 15 minutes in each month, Tri-State charges $20/kW. By reducing their peak with the bus battery, LPEA realizes 60 kW x $20/kW = $1,200 savings a month. Says May, 60 kW of demand “that’s like a dozen houses or more coming off the grid during the peak hour.”
Just selling that off-peak energy, we don’t make much more than $0.02 per kWh and it would’ve been close to a 400 year payback period, but doing demand managing with the V2G system turns it into about a five to eight year payback period.
Dominic May, LPEA Energy Resource Program Architect
After that, the savings will accrue to LPEA’s membership.
The bus is free to the school district, but is it cheap?
The electric fuel for the bus will be one sixth the cost of diesel. The electric motor and drive train require much less maintenance than gas or diesel buses. No oil or coolant changes, no air filters, no tune-ups. LPEA’s use of the battery doesn’t require any changes to the regular schedule the bus would run. They only use it when it would be sitting at the bus barn anyway.
A diesel bus will have to be sacrificed as a condition of the state grant dollars. The school district’s oldest bus must have its axles broken or its engine cored to ensure it is permanently disabled. The intent of the state grant is to reduce air pollution by taking old diesels, which have very dirty exhaust, off the road.
What else can you do with a school bus full of cheap energy and V2G technology?
Provide mobile electricity sources during blackouts.
Any school or other buildings designated as emergency shelters would need to be outfitted with a bidirectional charger, and the electrical infrastructure to support it, to be able to receive the energy in the event of a blackout. Once installed, these chargers could also be used as fast chargers for any electric vehicle in non-emergency circumstances.
They definitely can serve as an emergency generator. One of the cooler things they could do is come up and power something like a FEMA shelter. However, the caveat is the places have to be wired up to receive this and infrastructure will need to be built to support it.
Dominic May, LPEA Energy Resource Program Architect
Demand management is getting bigger and bigger, especially as renewables come on the grid. You have this extremely cheap and clean energy, but it’s intermittent. So, anything you can do for storage is really what this is all about. That’s the dream of V2G – that we would multi-purpose this giant fleet of batteries that are out there to make the grid cheaper, cleaner, and more resilient.
Dominic May, LPEA Energy Resource Program Architect
Does the electric school bus help decrease greenhouse gas emissions?
On some grids, the power used at peak times is dirtier than at other times. For example, on a grid which has solar generation, and uses natural gas “peaker” plants to provide energy during the peak evening hours just as solar is waning, energy used at peak times will have higher carbon dioxide emissions per kilowatt. By decreasing the amount of kW used at peak times, those higher emissions are avoided.
On our current fuel mix, the school bus will reduce carbon emissions by about 2 ½ times its weight in carbon dioxide every year.”
Dominic May, LPEA Energy Resource Program Architect
When greenhouse gas emissions are decreased, the other pollutants associated with burning petroleum are also decreased. Diesel engines emit particulate matter, nitrogen oxides, carbon monoxide and numerous toxic volatile organic compounds.
The bus is expected to arrive in Durango by the end of October 2021. It’s now at its final stop, getting outfitted by a company on the front range to the school district’s specifications.
1) Tesla sales soared globally and nationally, jump-starting the EV revolution and attracting big investments in EV companies. Tesla dominates the global market for BEVs; no other manufacturer has even a fifth of the global sales of Tesla. At one point Tesla’s model 3 sales in California made it the single most popular new vehicle model bar none. As Tesla stock soared in price (at one point giving Tesla a market valuation greater than that of all the legacy car manufacturers combined), investors sought out other firms in which to plunk their money. Rivian raised several billion in new funds. Other investors were not so lucky. Nicola apparently fudged the numbers and collapsed after the Securities and Exchange Commission went after them. Lordstown fibbed when they said they were ready to begin sales, and its stock also collapsed, in part because Ford announced that Ford was to market to exactly the same niche market (electrical utility fleets) that Lordstown had bet its future on.
2) The major legacy car manufacturers got into a publicity arms race over promises about the future of EVs, but didn’t actually produce many. Most announced they were going to spend X dollars pursuing electrification, and that they planned to have Y percentage of their sales electric by date Z (or cease selling regular vehicles ICEs (Internal Combustion Engines) by a certain date. Given their inability to meet any of the previously announced EV sales deadlines, one has reason to be skeptical, but the fact that they feel compelled to (over?) promise may be better than inaction.
3) VW may be an exception, as they committed billions of their own money to ramping up charging infrastructure. Whereas VW was legally obligated to spend the fines leveled as a result of the diesel cheating scandal to construct the Electrify America EV charging network (by the end of 2021: 800 sites in the US, featuring 3500 chargers), VW recently committed to spending about $2B of their own unrestricted funds to more than double the size of the Electrify America charging network. To put their claims in context, the US presently has about 41K charging sites and 100K public chargers. By 2025 Electrify America intends to have 1700 sites and 9500 chargers. Electrify Canada will be similarly expanded, and VW expects to spend $86B by 2025 to pursue electrification. This one-upped GM, which had only promised $35B for the same time period. So there!
4) Tesla announced a vague plan to someday share its charging infrastructure with others, which will double the infrastructure for non-Tesla EV drivers. The financial details remain to be worked out. Presumably the fillup cost to non-Teslas will be higher than those to Tesla owners, though the costs might alternately be borne by the other car manufacturers (as being discussed in Europe). Regardless, when you find yourself somewhere with a nearly drained battery and a handy Tesla supercharger, the cost differential might be immaterial. How this would work physically (who needs to buy which conversion cables) remain to be determined. With the rapidly dwindling number of CHAdeMo connector users, this portends a glorious future in which the connectors become uniform and interchangeable. However, some car manufacturers (e.g., Porsche) are pushing for a doubling of the fast-charging voltage standard (from 480 VDC to 960 VDC), which might complicate things and raise the cost of building fast-chargers.
5) Biden targeted EV infrastructure for a massive buildup, but so far the Republicans have stymied it; the White House has plans for covering some of the blocked buildup using budget legislation. Political inertia is with the Democrats, but political power on the Hill is very close to gridlock. Stay tuned.
6) EV sales have spread out from sedans to SUVs and crossovers. There are now many all-wheel drive vehicles (AWDs) at mid- or higher price points, though availability is somewhat limited in some places. Among the car models with at least an AWD option are (ordered by base MSRP from low to high) (see link for pickup trucks):
Tesla Model 3
Tesla Model Y
Polestar (Volvo) 2
Tesla Model S
Tesla Model X
7) EV pickup trucks were supposed to emerge in 2020, but did not. First at bat is Rivian, but for the last year this new manufacturer has been promising deliveries in about “a month or so.” Ford and Tesla are teasing mass-market EV pickups, but no firm sale dates have been announced; Ford will sell them to electric power company fleets in 2022. GM is teasing a $117K Hummer EV: that’s a little rich for me, but the day of capable AWD electric pickups is nigh. I expect to see one locally in September.
8) Policy makers have woken up to the cost and complexity of rapidly expanding clean power generation and delivery of electrons for EVs, but no coordinated response is evident. For most, the major expenses have been penciled in for “later”. Texas ran into catastrophic grid failures during a winter cold snap, in part due to their inability to obtain power from neighboring states, which had power (Texas is the only continental state with a stand-alone grid). Texas legislators are now patting themselves on the back for bold new initiatives long adopted by other states (e.g., requiring the utilities to cold-harden their generators), but connecting the Texas grid to the rest of the nation is not on the table.
9) Climate-related natural disasters make the front page almost daily, but most media outlets cry for money to build structural defenses, not prevent climate change. Record-breaking temperatures, unprecedented wildfires, smoke plumes reaching almost all of North America, chronic coastal floods, record-setting deluges around the world, and agriculturally debilitating droughts would seem to be enough to get the worlds’ attention, but media coverage has focused only on mopping up the mess.
And locally: 10) The city of Durango and La Plata Electric Association (LPEA) wrote a seminal EV readiness plan, but near-term changes are underwhelming. For example, in the “lead by example” element, LPEA committed to buying two Ford EV pickups when they become available sometime in 2022 (or 2023). Meanwhile, fast charging (DC) has finally reached the local area, with Pagosa (2020), Durango (July 2021), and Purgatory ski area (late 2021) acquiring moderately fast-charging capability. Those chargers should boost visitation by tourists and provide solace to local EV owners who might suddenly need to go a long distance. The EV readiness plan has put all the right processes in place; the heavy lifting – you guessed it – comes later. Stay tuned.
No joke. The 1971 VW Fastback pictured above is powered by a 2015 Nissan Leaf powertrain.
The powertrain of any vehicle includes the mechanisms which transmit engine power to a vehicle’s axles, and the axles spin the wheels. In petroleum-powered car, it includes the engine, transmission and axles. In an EV, power flows from the battery directly to an electric motor on the axle which spins the wheels.
Definition of powertrain
Many of us have loved and lusted after certain classic vehicles from years gone by. For Mick Longley of Durango’s Busaru, those vehicles have been Volkswagens.
Recognizing the huge impact burning fossil fuels has on our planet’s climate, some of us regret we can no longer drive those cars or trucks. Or we’ve driven an electric vehicle and experienced how vastly superior they are and don’t want to go back to the cost and inconvenience of petrol power. For Mick Longley, this was a problem he could solve.
Mick’s love for classic VW’s started in the mid 2000’s when he picked up a VW Westfalia camper to travel around in. He moved out to Durango, Colorado in that van and started BUSARU, the VW to Subaru engine swap business. He had been holding onto the 1971 VW Fastback for a few years – awaiting a project.
I was initially going to put a Subaru engine into it but got re-inspired by the EV conversion scene. I had converted a 70’s Kawasaki motorcycle and a slough of classic bicycles back in the day, even had a small business doing that in CA called zombiEVintage.
The most difficult part was mounting the battery and motor in the old VW, but he was able to find a solution which allowed keeping the LEAF battery completely intact, including all its safety mechanisms.
Removing the internal combustion engine (ICE) equipment is actually a ton of fun!
LOTS of experience with electronics packages for the do-it-yourself (DIY) Subaru-VW community helped with navigating the electronics and wiring diagrams for the LEAF-based conversion.
Will he convert your classic car into an EV?
He’s definitely interested in taking on projects once he gets more experience converting his own vehicles.
He’d love to hear about other people’s EV projects. Let him know what dreams you’re cooking up.
He plans for Regen EV’s to offer kits for DIY tinkerers to more easily retrofit their VW Bus and Vanagons (and possibly other vehicles) to electric power.
For a deeper dive into Mick’s work on the Fastback, check out his YouTube channel video below and continue reading below the video!
As Mick expected, the mounting of the battery and motor were the most challenging parts. Most VW conversions rely on using the VW transaxle and adapter plate to mount an aftermarket motor, and batteries mounted in the cargo areas.
Since I wanted to use a mass-produced donor vehicle to keep costs low and reliability high, it brought up some unforeseen challenges. In a way, the VW chassis made the battery location decision for me. The floor pan was rotten with rust, which needed to be replaced anyway, so I just cut all of it out and built a frame out of rectangular tubing. This allowed me to keep the LEAF battery completely intact, including all of its safety mechanisms, as well as providing a structural component for the car – the many benefits of keeping the center of gravity low in the chassis! Once the battery was mounted it took a few days of playing with different drive unit mounting schemes. In short, once the battery was figured out, everything else came together pretty easily.
What was the biggest challenge in starting this project? It was believing it could be done!
Parsing the overall project into smaller projects really helps. Removing the internal combustion engine (ICE) equipment is actually a ton of fun. You get to see how cars are put together without the pressure or fear of breaking something you’ll need. In the case of the Fastback project, I knew I wasn’t going to be using any of the VW ICE equipment, including the transmission, so it was pure fun removing the old rusty grease-caked parts to make way for a clean EV drive unit.
In a Subaru engine conversion, the most intimidating part of the project for do-it-yourself DIY folks is the electronics. I have completed nearly 1000 electronics packages for the DIY Subaru-VW community and that experience really helped me navigate the electronics and wiring diagrams for the LEAF-based conversion. With the electronics mystery figured out, the conversion became more and more fun to work on, and a great learning experience. The next conversion will benefit greatly from what I learned on this one.”
Does Mick plan to do more EV retrofits?
I want to get a couple more personal EV conversions finished before taking on customer work. These include a 1973 VW Bus (LEAF conversion) a 1965 GMC pickup (Tesla conversion), and a 70’s vintage Ford Bronco project that I’m converting for a friend.
I am definitely interested in taking on projects once I get a little more experience converting my own vehicles. I like to experiment on my own vehicles first! I love to hear about other people’s EV projects though, so let me know what dreams you’re cooking up.
Does he have plans to make EV retrofits of classic cars part of his regular business?
Yes, like with BUSARU, I plan for Regen EV’s to offer kits for DIY tinkerers to more easily retrofit their VW Bus and Vanagons (and possibly other vehicles) to electric power. I’ll keep supporting the VW community (especially the camper van VW’s) because they really represent the spirit of adventure and travel, and there’s nothing like cruising to an adventure destination on battery power!
In January of 2020 I received information from Ford that I could order a Mustang Mach-E. I just needed to put down a fully refundable deposit of $500. So I did. I had been waiting for an all-electric SUV of at least medium size, and having something with at least a little bit of Mustang heritage looked good! (I have owned several Mustangs in the past.)
In July of 2020 I was asked to put down an additional $500 to confirm my order. (I actually gave the local dealership $1000 and Ford refunded my original $500 deposit.)
I ordered the Mach-E with all-wheel-drive which is important since I live in a part of SW Colorado where we get a good amount of snow each year. I also ordered the standard range battery since it was not my intention to take road trips in the Mach-E. It would be used mostly for local driving. And of course, I ordered the Rapid Red color!
I have to say it was not easy to get information about the car directly from Ford or my local dealership. They could have done a much better job of having contacts that knew something!
I was finally told the car would be built the week of December 14, 2020, but they did not give any indication of when I might actually receive it. It showed up at the dealership on February 6, 2021, and my experience with the dealership during the actual sale (strangely enough) was actually quite good. Durango Motors gave me a fair trade-in, and we closed the deal.
Now that I have had the car for a month, I have to say I am very pleased!! Here are some things I really like about the car:
It’s plug-in electric!! I don’t have to buy gas, and I’m not putting nearly as much carbon into the air.
It drives great. Acceleration is dramatic, and the handling is very close to what I have experienced with “real” Mustangs.
It’s great in the snow. I put winter (Nokian) tires on it immediately, and I have driven in fairly deep snow twice. The car has super traction in the snow.
There’s lot of room inside. With the rear seats down, I can carry quite a bit. With them up, there’s still plenty of room. And of course there’s the frunk (front trunk).
I like (not love) the styling. Lots of Mustang hints and styling that stands out.
The displays are excellent. There is one directly in front of the driver and a much bigger screen in the center. Just about everything the driver needs to see is on the screen directly ahead, so you don’t have to look away from the road.
The car comes with a portable charger which you can plug into a 120-volt or 240-volt outlet. (Charging with 120 volts is pretty slow, but it was all I had until I got the 240 outlet installed.)
Ford EV’s still qualify for the $7500 federal tax credit, and Colorado has a state income tax credit for EV’s.
The Mach-E is quite well built. The suspension is tight, the doors fit perfectly, and the wind and road noise is very low.
There are lots of very nice features, too many to cover here.
There are a few things I’m not crazy about:
Ford only supplies one key fob and expects you to use your phone as a key. It took me several days to get my Android phone working as a key. This has been a common complaint on the web.
Support at Ford and the dealership is still pretty spotty. They could have handled this much better.
There’s a pretty steep learning curve if you want to use all the features. I’m also not sure if I will ever have the courage to let the car parallel park itself!
The FordPass app, at least for Android, takes quite a while to learn. It would be very nice if you had a way to group the things you commonly do in one place instead of constantly searching for them.
Overall, I am very excited about my Mach-E and I am really glad I bought it.
We bought our 2018 Chevy Bolt in 2018, feeling assured the 238-mile range advertised for the vehicle would meet our daily needs and make our most common weekend trips. Knowing Electrify America was making steady progress on installing DC fast chargers on interstates from coast-to-coast, we figured the Bolt would also allow cross-country trips on the rarer occasions we needed to make them.
Battery and Range – What You Expect
Therefore, our decision to buy the car was based on two things: the size of the battery and how the battery management system (BMS) functioned.
The size of the battery determines the maximum distance you can travel between charging stops.
For the Bolt, that distance is about 238 miles in mild weather, with no extremes of cold or hot temperatures.
The BMS determines (among other things) how often you can use a DC fast charger each day and during periods of high or low temperatures.
The Bolt’s BMS includes a liquid cooling system. When you use a DC fast charger to add electricity to your car’s battery, the battery’s temperature increases. The liquid cooling cools the battery quickly enough it can accept another full charge by the time you need one. You can DC fast charge multiple times a day, regardless of the outdoor temperature.
In contrast, the 2018 Nissan Leaf used only air cooling. It could not cool the battery fast enough to allow more than one fast charge a day on a hot summer day. So range is significantly limited on hot summer days.
What Chevy Bolt, Kona Electric and Ioniq Electric Owners Got
Chevy recalled a “select number” of 2017-2019 Chevy Bolts built with:
“high voltage batteries produced at LG Chem’s Ochang, Korea facility that may pose a risk of fire when charged to full or very close to full, capacity. As an interim remedy, dealers will reprogram the hybrid propulsion control module 2 (HPCM2) to limit full charge to 90%.”
We had DC fast charged four or five times a day for each of the 3 days of the trip both coming and going. At several of those charging stops, we’d had to charge to greater than 90% so we could get to the next DC fast charger with some cushion.
A recall is issued when a manufacturer or NHTSA determines that a vehicle, equipment, car seat, or tire creates an unreasonable safety risk or fails to meet minimum safety standards.
In other words, under federal law, there is no protection for EV owners if a safety fix causes a reduction in vehicle range.
If Chevy proves limiting the charge capacity to 90% fixes the safety issue, the NHTSA recall can be closed if that limit is made permanent by the BMS software. Owners would have to band together and sue based on the loss in value of the car due its reduced range. It seems unlikely that after the lawyers were paid there would be much left for those of us still owning these vehicles.
Finding Fault: Battery Manufacturer or Car (BMS) Maker?
Chevy Bolt Not Alone with Battery Fires
The cause for the fire hazard in the Chevy Bolt is not yet settled. The Hyundai Kona Electric and Ioniq Electric are also on recall for battery fires right now, with batteries also manufactured by LG Energy Solutions, though at a Chinese facility.
Hyundai has claimed the fires were caused by defective manufacturing (a misalignment of an anode tab) of some battery cells on LG’s part.
GM (Chevrolet) has stressed the Bolts’ batteries use a different cell separator than Hyundai and so the two recalls are unrelated.
On 2/24/21, LG stepped into the fray. In a statement on the Kona EV recall, LG states the Korean agency responsible for confirming the cause of the fires has not been able to confirm the problem is misalignment of the anode tab. They claim Hyundai misapplied the BMS fast charging logic proposed by LG. They are cooperating with the “relevant authorities” to discover if that had any connection to the fires. LG also says damage to the batteries’ cell separators has been confirmed as unrelated to the fires by a joint investigation team.
So, for Chevy and Hyundai, and Bolt, Kona and Ioniq owners, the question is: Do the batteries need to be replaced or is it a BMS software fix?
Hyundai has had more fires in their affected vehicles and their recall covers a larger number of vehicles. Rumors are circulating that for Hyundai, all battery packs may need to be replaced. Kona Electric owners are suing for depreciation the issue has caused. Chevy owners haven’t organized on that front yet, but I would not try to sell or trade in our Bolt until this issue is resolved. I think most buyers would hesitate to buy a Bolt affected by this recall.
How do you Fix it? What Chevy Says
I called the Chevy EV concierge on 2/27/21 after reading the following on Chevy’s Bolt Recall webpage:
A team of GM engineers has made substantial progress in identifying the root cause and potential remedies for this issue. They are in the process of validating state-of-the-art software that can diagnose potential issues early and restore 100% charge capability. A final remedy for this recall is anticipated for April 2021. Until that time, if you have not already done so, we recommend scheduling a service appointment with your dealership to update the vehicle’s battery software to automatically limit the maximum state of charge to 90 percent.
I asked the concierge how a software fix (a BMS fix) would solve the problem. Would it detect changes within the battery and provide a warning to the owner if changes occurred which might lead to a fire? Then the battery could be repaired or replaced before a fire could happen?
The concierge said it has not yet been determined the final fix will be software. He said it hadn’t gotten to the point of even discussing if a warning system would used or required. They don’t yet know if it will be a software fix or a battery replacement. We might find out earlier what the fix will be, but the fix won’t actually be available until April 2021.
It seems GM appreciates the importance of maintaining the range promised to buyers at the time the vehicle was purchased. A ten percent range reduction may not sound like much to a judge behind a bench, but when you’re sitting in the dark, gravel parking lot in front of the I-70 diner in Flager, CO at 11 PM, hanging in there for yet another 20 minutes to be sure you make it to your motel in Colorado Springs two hours away, it seems like an awful lot indeed. GM would do well to keep their EV early adopters in mind as they plan for their all electric future. I hope they won’t leave us furious with the cure to this recall, whether it be for the battery or the BMS.
They don’t, but neither does your internal combustion engine (ICE) car, and no one whines about their ICE car in the winter (if it starts). All vehicles lose some efficiency when they are cold, but alert reader Richard Grossman pointed out a recent article (link: https://insideclimatenews.org/news/11022021/inside-clean-energy-norway-electric-vehicles/) on Norway’s adoption of EVs: 56% of new car sales, compared to 2% in the United States. This fact was highlighted in a recent Superbowl ad for Chevrolet, but remember this: the top FIVE countries for EVs sales are all near the Arctic Circle:
The linked article explores the reasons for Norway’s rapid adoption of EVs, which include celebrity endorsements, an early and rapid government-funded build-out of charging stations, and tax breaks that provide purchase price parity between regular cars and EVs. If you are interested in EV policy incentives, be sure to check out the lively article by Dan Gearino in the link above.
They found an average of 2.3%/year range loss for the EVs on the road today. “If the observed degradation rates are maintained, the vast majority of batteries will outlast the usable life of the vehicle.”