Tuesday, June 10, 2014

Electric Drive Industry Sets Sales Record in May

The summer kicked off with record sales for electric drive in May as automakers posted their highest numbers for plug-in and battery electric vehicles since market roll-out. Sales of plug-in vehicles reached 12,453 last month, including 5,802 battery electric vehicles and 6,651 plug-in hybrids.

Meanwhile, 52,227 hybrids moved off of lots in May, the second highest month on record.

The total number of plug-in vehicles sold in the U.S. since market roll-out is now at 211,097, more than double the number at this time last year.

These positive trends are all detailed in our electric drive market snapshot below.  This information, as well as historical sales data on the electric drive market, can be found at  www.electricdrive.org/sales.

 

Labels: , , , , ,

Monday, April 14, 2014

GM Invests in an EV Future: $449 Million to go Towards Electric Vehicles













Image CC by: MotorBlog.com

Are electric vehicles the future of personal transportation?

GM seems to think so with its latest round of investments into the EV market. While the company has seen only tepid sales for its Chevy Volt, GM will be hunkering down and making some major investments in electric vehicles over the coming years. It seems one of the world’s largest automakers does not want to be left behind when it comes to EVs.

At the Automotive Press Association the other day, GM announced an investment of $449 million into advanced technology. $384 million will be going to GM’s Detroit-Hamtramck facility, the plant which makes the Chevy Volt, while the remaining $65 million will go to the Brownstone Battery Assembly facility, where all the company’s lithium-ion batteries are made.

The investments come just ahead of the release of the next generation Chevy Volt, which has an anticipated release date of 2015 or 2016. Although the company is remaining quiet about the forthcoming Volt, some speculate it could feature an all-electric range of 50 miles and a much smaller range-extending engine.

Don’t forget GM is also planning to release the first affordable 200 mile range all-electric vehicle. One of the sticking points is creating an affordable battery with that range, but the company is confident it can be accomplished in the near future. Such a vehicle would be a direct competitor with Tesla’s upcoming Model E, which will be geared more towards the average American.


GM has invested nearly $1 billion in EV technology, suggesting the company takes its electric vehicles seriously. It has just released the Cadillac ELR, to compete on the luxury EV stage and is now looking for new opportunities in the growing EV market. It will be interesting to see how GMs EV investments will pay off down the road.

Joseph Tohill is a freelance writer and online communications specialist for organizations in the sustainability sector. He has a B.A. in Interdisciplinary Studies from the University of British Columbia and spent most of his academic career studying sustainable urban development; namely the interdisciplinary relationship between built form and natural environment.

Labels: , , , , , ,

Friday, March 21, 2014

Cutting Costs With EV Charging Stations: Sea-Tac Airport Case Study














Image CC Licensed by: Alan Turkus

When the Seattle-Tacoma International Airport elected to install 600 EV charging stations this year, going green wasn’t the only thing on its agenda. As the 17th busiest airport in the US, Sea-Tac serves 31.5 million passengers and hosts over 20 airlines. In addition to managing its large environmental footprint, it also has to remain a competitive hub for air travel and look ahead towards changing transportation trends.

Part of remaining competitive means providing services that benefit its airlines and travelers. And since electric vehicles are quickly picking up steam as a viable transportation option, looking into the installation of EV charging stations made sense.

Interestingly, one of the primary reasons Sea-Tac will be installing EV charging stations is to help airlines save money while using its facilities. In particular, Sea-Tac estimates its network of charging stations could save its airlines nearly $2.8 million per year in fuel costs. In addition, the airport could reduce greenhouse gas emissions by 10,000 tons, which would be equivalent to taking 1,900 cars off the road.

Having such an accessible EV infrastructure will allow airlines to seamlessly make the transition from diesel to electric power for their ground support vehicles and equipment.

The project is being spearheaded by the Port of Seattle, Alaska Airlines, and Western Washington Clean Cities and will be carried out in two phases: phase one will see 296 charging stations at concourse D, C and the north satellite, while phase two will see 300 additional charging locations in the rest of the terminal. Altogether the project will likely be completed in fall of this year.

Alaska Airlines already has 204 EVs on the ground at Sea-Tac airport, with plans to invest in many more.

What Any Property Manager Can Learn from Sea-Tac:

So what is the biggest take-away from this case study?

There are more than just environmental considerations involved in the installation of EV charging stations. 

Indeed, many properties (not just airports) are realizing that providing valuable EV amenities can reduce operating costs and provide a valuable service to EV drivers. Fuel prices are only going to increase into the future, thus making a compelling case for an all-electric vehicle fleet. Plus while making the necessary infrastructure investments, you are also helping the increasing number of EV drivers who also need a place to charge their car.

Joseph Tohill is a freelance writer and online communications specialist for organizations in the sustainability sector. He has a B.A. in Interdisciplinary Studies from the University of British Columbia and spent most of his academic career studying sustainable urban development; namely the interdisciplinary relationship between built form and natural environment.

Labels: , , , , ,

Friday, March 14, 2014

EV Economics: A Cost-Benefit Analysis of Electric Vehicles














Image CC Licenses by: Paul Krueger
 
EV skeptics are quick to proclaim the higher upfront costs of electric vehicles and their limited range compared to gas powered cars. But while these arguments may have been true when the first electric cars hit the market a few years, they no longer pass muster today. 

Today’s EV landscape is vastly different than the one three years ago, with technological innovation, improving infrastructure, and higher fuel prices making them an increasingly viable consumer option. In fact, if one were to take a life cycle analysis of electric vehicles, they pay for themselves by applying basic laws of economics.

In this article, I’ll provide a brief cost-benefit analysis of electric vehicles in an attempt to shed some light on the long-term economic benefits associated with buying an EV.

The Financial Cost of Electric Vehicles

Upon first glance, it may seem that electric vehicles have a higher upfront cost than the average gas powered car. And while this is certainly true in many cases, it doesn’t account for the host of subsidies or the life cycle savings inherent to electric vehicles.

Take the Ford Focus Electric. With a price tag of $32,490, it is a whole $9,000 more expensive than the gas powered version. However, when you factor in the $7,500 federal tax credit, the Ford Focus becomes $24,990. Many states also have their own subsidies available. For instance, in the state of Colorado, the state chips in another $6,000, making the price almost $4,500 cheaper than the gas powered Focus overall. If you buy the car in Illinois, the price decreases by $4,000, and in California the price decreases by $2,500 due to state subsidies.

Therefore, anyone interested in buying an EV right now would likely not have to shell out much more than if he/she were to buy a similar model gas powered car.

On top of the initial subsidies available, electric vehicles can save consumers a huge amount of money over the car’s lifespan. Now, of course the price of electricity changes depending on where you charge up your car. But regardless of where you decide to charge your car, the price of electricity pales in comparison to refueling a gas powered car. An often quoted average is $2-3 per charge, but many places will have rates hovering around $1.50.

On top of that, maintenance costs are way cheaper in an electric car than a gas-powered car.

Overall, you’re likely looking at an economic savings in many cases, right from the initial purchase through to the end of the car’s lifespan.

Should Consumer’s Be Anxious About Range Anxiety?

One of those intangible costs associated with buying an EV is the influence of range anxiety. Without a doubt, the majority of electric vehicles have lower range than most other cars. The Ford Focus electric gets about 74 miles per charge, the Nissan Leaf gets about 73 miles, and the BMW i3 gets between  81 to 91 miles of range. The standout amongst electric vehicles of course is the Tesla Model S with a range of 265 miles.

However, statistics on how far consumers typically drive reveal some interesting insight. The average American drives roughly 30 miles per day, which is well within the range of all of the above electric vehicles. Longer trips over 300 miles constitute less than 5% of all trips that current drivers might need to take. According to the Union of Concerned Scientists, roughly 42% of Americans could make the switch to electric without having to alter their driving habits.

Lifespan Costs of EVs Will Decrease Over Time

Finally, the lifespan costs associated with EVs will drop over time – these are benefits even consumers who buy an EV today will experience. 

First there’s the obvious savings of avoiding fossil fuels. The price of gas has already gone up considerably over the past 10 years and shows no sign of slowing down. The overall trend is towards higher fuel prices, and thus higher expenses attributed to driving around in a gas powered car.

Secondly, improvements in battery technology will make replacing EV batteries cheaper in the future. Presently, battery technology is improving by 6-8% every year. By 2020, this could mean batteries would cost between $5,200 and $6,500, far less than their current price tag of around $12,000. While critics often highlight the high prices associated with replacing the battery down the road, they fail to take into account the considerably lower prices for these batteries in the future.

Conclusion

Electric vehicles are far cheaper than many people realize when one accounts for subsidies available, lower maintenance costs, higher fuel prices, and improving technology. The lifespan savings inherent to an EV are its key selling feature when looking exclusively at their financial viability over the long-term.

However, on top of the economics, there are also the environmental benefits associated with choosing an EV. Environmental benefits are incredibly difficult to account for in a cost-benefit analysis in any tangible way, but they are certainly important.

One of the reasons I haven’t relied on the environmental benefits associated with EVs is because they are by now quite obvious, and are probably the biggest selling feature of EVs. However, hopefully I’ve proven that EVs make sense purely on an economic level for a consumer that is looking to save money over the long-term while also contributing to a sustainable future. 




Joseph Tohill is a freelance writer and online communications specialist for organizations in the sustainability sector. He has a B.A. in Interdisciplinary Studies from the University of British Columbia and spent most of his academic career studying sustainable urban development; namely the interdisciplinary relationship between built form and natural environment.

Labels: , , , , , ,

Friday, February 28, 2014

EV Innovation: Local Motors Announces 3D Printed Electric Car














Image CC Licensed by: zombieite
 
Electric vehicles have long been at the forefront of transportation technology. Every year battery technology improves, cars become more stylish and functional, charging stations become more widespread, and consumers become more receptive to fully-embracing clean transportation options. Consequently, it should come as no surprise that the EV market has just been rocked by another innovation; the 3D printed electric car.

Local Motors has just announced plans to deliver a 3D printed car to the International Manufacturing Technology Show in Chicago later this year. It will be one of the first electric cars to be “printed” using additive manufacturing, thus unlocking brand new avenues for innovation amongst electric vehicles. 

While the 3D printed electric vehicle will likely be relegated to a niche segment of the electric vehicle market for now, it nevertheless underlines the exciting technological innovations taking place in the EV market every year. It also highlights why investing in EV charging stations has become so popular with companies looking to convey a cutting edge, 21st century image while providing an increasingly popular service for a growing segment of the automobile market.

A Primer on 3D Printing

3D printing is a manufacturing process that has actually been around since the 1980s. However, it wasn’t until 2010 when 3D printing technology vastly improved and become more economically viable. The premise behind 3D printing is to send printing specifications to a printer, which can then use various raw inputs to produce a three dimensional end product. 

Some common household applications for a 3D printer are making vases, cups and basic consumer goods. However, 3D printing has been deployed in more complex manufacturing processes such as constructing houses, making furniture, and now, building cars. 

Some of the benefits of 3D printing are that it can reduce construction costs, drastically cut-down manufacturing design, and allow for easy design adjustments via software. While 3D printing technology is still very much in its infancy, it will be interesting to see where the technology will be 20 years from now.

Local Motors’ 3D Printed Electric Vehicle

Local Motors still has some time before the Chicago Technology Show in September, so it hasn’t revealed all the technical aspects of its 3D printed car. However, it will be using advanced manufacturing techniques and material science from the Manufacturing Demonstration Facility at Oak Ridge National Laboratory to produce the world’s first direct digital manufactured vehicle. 

The car will be uniquely customized to suit the streets of Chicago. This local orientation suits the company’s overall automobile vision – to create cars that are uniquely customized to fit in with their local landscape. And perhaps 3D printing technology is the best, most efficient way to accomplish such a locally oriented electric vehicle.

Local Motors will be using the car to demonstrate how companies can use advanced additive manufacturing techniques to produce sustainable green technology at a lower production cost.
The company’s first customer for the new 3D printed electric vehicle will be the Association for Manufacturing Technology.

The EV Market: Defined By Innovation

Local Motors’ 3D printed electric car is just one example of how cutting-edge technology is being applied to the EV market. However, the EV market is a sector that has been defined by technological innovation since its inception. This technological innovation has fueled increasing interest into creating a clean transportation future defined by digital networks, smart technology, and the user experience.

Forward thinking companies have been latching onto this innovation by investing in fleets of electric cars and EV charging stations. Investing in the EV economy can be a powerful way to solidify a company’s dedication to innovation and sustainability, which are two key components of the 21st century business model.


 Joseph Tohill is a freelance writer and online communications specialist for organizations in the sustainability sector. He has a B.A. in Interdisciplinary Studies from the University of British Columbia and spent most of his academic career studying sustainable urban development; namely the interdisciplinary relationship between built form and natural environment.







Labels: , , , , , ,