Irrational Disdain for Electric Vehicles

The mainstream media holds sway over much of public opinion and messages repeated over and over seem to become the reigning paradigm, engrained deeply into most everyone's consciousness. As Steve Harvey points out in The EV-haters guide to hating electric cars, the list of fallacies that are promoted in this way is long and continuous. An example Harvey provides is the typical EV-hater calling electric vehicles a sales flop despite one- and two-year waiting lists for most models.

To counter the many misconceptions, Harvey compiled a list of "truthy" facts and introduced it in this way:

Whatever the reason, the media often has an irrational disdain for electric vehicles. And a similar disdain is common among the general population too. The same EV-hating arguments are repeated ad nauseam in the media. After analyzing the key arguments of the EV haters, I have compiled what I believe is the first-ever "EV-Hater's Guide to Hating Electric Cars." If you really hate EVs -- and you know who you are -- then this Top 10 guide is especially for you.

Good information to have on hand the next time you get into an argument with an EV-hater.

Reflections of a Nuclear Power Engineer

In this article, reposted on CommonDreams.org, a nuclear engineer talks about his disenchantment with nuclear power because of safety issues and offers an insider view of inherent problems. He offers an interesting assessment of the probability and risk associated with nuclear plant operation:

He illustrates this by comparing driving on the Italian highway, the Autostrada, with running a nuclear power station. Driving on the Autostrada has a low risk to the general population. A possibility does exist that you will crash, and perhaps die as a result, but the consequences of the accident to the general society will be next to nil. That’s why countries let almost anyone drive. So a moderately high P times a very low C equals a small risk to society as a whole.

On the other hand, the chance of an earthquake and tsunami of the magnitude that hit Japan are quite remote, especially occurring in tandem, which makes for a tiny P. But the consequences — the C — of them imperiling a nuclear power plant are huge, leading to a much higher risk to society.

Voters in Italy are convinced. They just voted down plans to restart nuclear power in their country.

Solar-powered aircraft spends 12 hours aloft, consumes no fuel

It only flies at 30 mph, but what it lacks in speed it makes up in efficiency. This aircraft from Solar Impulse, designed to demonstrate the potential of renewable energy, stayed aloft for 12 hours 59 minutes without consuming a single drop of avgas. This article by Gizmag notes:

Solar Impulse is an astonishing feat of engineering. It has a wingspan of over 200 feet (61 m) yet it weighs only 1600 kg (3,527 lb) and carries almost 12,000 solar cells which supply all of the energy required to keep it aloft.

The following video shows this amazing aircraft during the final leg of its historic voyage.

Three-wheeled ZAP Alias classified as a motorcycle

Federal certification for the ZAP Alias was simplified by the three-wheel design, which means that it only had to meet certification standards for a motorcycle rather than more stringent automobile requirements. ZAP, headquartered in Santa Rosa, CA, recently acquired a majority share in Zhejiang Jonway Automobile Co. Ltd. in China, where the Alias will be manufactured. The first deliveries of the electric vehicle, priced at $38,000, are slated for September 2011.

Houston embraces renewable energy

Houston serves as an excellent model for moving away from fossil fuels and nuclear power to a genuinely clean, infinitely renewable approach to meeting a major city's energy needs.

Designers find ways to tap wind power almost anywhere

A gizmag post, Power Flowers to domesticate wind turbines, explores the potential of the product of a Dutch design house, Nl Architects, to tap wind power closer to where it is needed.

While most of us will offer strong vocal backing for the construction of wind farms, that can soon change if someone suggests building one nearby. As a result, the tri-blade towers get exiled to the middle of nowhere – or even further away. Instead of having a few high performance giants scattered throughout the land, NL Architects proposes a structure that would bring a few less efficient turbines together and place them closer to the users of the power they generate.

The efficiency of the vertical-axis turbines used in this design is less than tri-bladed turbines, but more can be situated in a given location. The technology looks promising and deserves more investigation.

Smart meters encounter resistance in CA

Smarten up, people, urges a post in The TerraPass Footprint. Numerous consumers are balking at the smart meter installations the California utility, PG&E, is rolling out across the state. Privacy and electromagnetic sensitivity are two of the issues being cited by consumers. If a significant proportion of utility customers choose to opt-out, the value of the entire program—which can provide useful minute-by-minute information about electricity usage—can be significantly lessened.

The post's author, Erik Blachford, comments:

For those who aren’t familiar with the smart meters, the basic idea is to replace analog meters read by hand (er, by eye), with digital meters which transmit electricity usage information wirelessly and presumably more accurately back to the utility. This technology enables but does not automatically trigger a variety of new rate-setting possibilities, most notably time-of-day pricing. By the same token, it enables the utility to provide consumers with more detailed information about their energy use; this data can be helpful for consumers hoping to reduce their consumption or even just their bills (though there are other services which don’t involve smart meters which achieve some of the same goals). Finally, smart meters may eventually tie back into the smart grid, allowing utilities to manage power distribution better by optimizing power available from small, distributed energy sources.

The trade-off between individual rights and the greater good of the commons (through a more efficient energy distribution network that can accommodate micropower installations more easily) is a tough one. In this case, the greater good may be on the side of smart metering.

Why buy an electric vehicle? Consumers speak out . . .

With a growing number of electric vehicles (EVs) reaching the market, consumer preferences are being scrutinized in a serious way. A recent Web survey conducted by ZPryme Research and Consulting—as discussed in a Gizmag article—revealed what it might take to lure a future car buyer away from a fossil-fueled macine to an EV.

As might be expected, range and charging time were key concerns:

Within the very to somewhat likely within two to five years group, 33.7 percent said that 400 miles (644 km) would be a sufficient range, while 33.3 percent were willing to settle for 300 miles (483 km). When it came to acceptable charge times, 32.1 percent indicated 4 hours, 18.1 percent indicated 6 hours, and 20.0 percent would wait for 8. If it were possible to pay a premium to charge their cars faster, 87.4 percent said they would opt for it. The ability to charge one’s EV at home is also a big deal, with 93.2 percent describing it as very important.

The technology is getting there, but meeting some of these consumer demands is going to take some work and some of that work involves consumer education.

A city powered by waste

Kristianstad, Sweden is setting an example for the rest of the world, as highlighted in this NY Times article, Using Waste, Swedish City Cuts Its Fossil Fuel Use. After a ten-year effort, the city of 80,000 has cut off the use of oil, natural gas, and coal for heating and now relies on waste products from farming and food processing to generate biogas.

hulking 10-year-old plant on the outskirts of Kristianstad uses a biological process to transform the detritus into biogas, a form of methane. That gas is burned to create heat and electricity, or is refined as a fuel for cars.

Once the city fathers got into the habit of harnessing power locally, they saw fuel everywhere: Kristianstad also burns gas emanating from an old landfill and sewage ponds, as well as wood waste from flooring factories and tree prunings.

Though the lock on fossil fuel use in the U.S. appears to be unbreakable, sometimes workable solutions to our energy problems are right in front of our noses.

Triac is not Tesla, but it's not meant to be

Tesla may have the celebrity cachet and media spotlight, but the humble, three-wheeled Triac is clearly the more practical choice for a "Green Core" consumer looking for a $25,000, all-electric vehicle with an honest 100-mile range. In a siliconvalley.com article, Mike Ryan, president of the firm based in Salinas, CA that produces the Triac, says that the car is aimed at people who have a more environmentally conscious lifestyle.

Key among the features is a sophisticated system for predicting remaining range before a recharge is needed.

The Triac will include a Vehicle Efficiency Data Assistant -- VEDA -- interface to the battery management system as well as diagnostic and navigational data. VEDA is an electronic learning system that captures a person's driving habits and commute patterns to accurately predict miles left before recharging.

"Range anxiety is something that gives people a lot of concern," Ryan said. "Say I forgot to charge my car. I'm at lunch. I want to run an errand before I go home. Will I make it home?"

Options in the electric car market are getting more expansive. The Triac is an interesting home-grown option that favors practicality over panache—and for many buyers that's a plus.

Sahara Solar Breeder Project to turn sand to solar cells to electricity

An ambitious project sponsored by universities in Janpan and Algeria seeks to accelerate the production of energy from solar cell technology using silica and sunlight from the Sahara Desert. The objective is to first extract silica from the sand to create solar panels and then combine the panels to make solar power plants in the same geographic area. The plants would be used to power additional silica extraction and solar cell manufacturing, building exponentially on the energy potential with a target of providing 50 percent of the world's energy by 2050.

As detailed in a Gizmag.com article, the project is attempting to accomplish a number of things that haven't been done before.

Subscribing to the "give a man a fish and he eats for a day, but teach a man to fish and you feed him for a lifetime" philosophy, another major aim of the project is to train scientists and engineers from developing countries. To that end, the project won’t just bring well-understood technology from developed countries, but will involve people from both developing and developed countries working together on R&D right from the outset.

“Because technology hasn't yet been established for making silicon from desert sand, then using it to make solar cells, our aim is to work together from the basic research stage, so we can discover and nurture talented scientists and engineers in Africa," said Koinuma.

More power to this project and a sincere hope that they meet their objectives.

Climate change deniers take over the House

Hopenhagen
Originally uploaded by Bjørn Giesenbauer

Elizabeth Kolbert's Field Notes from a Catastrophe tackled the challenge of global warming as a first-person observer, traveling around the world to witness the changes in places where they are most severe. Now, writing for The New Yorker in Uncomfortable Climate, she takes a hard look at the current crop of deniers entering the US House of Representatives, many of whom consider their primary role as disrupting any hope of political progress on this critically important global problem.

Though four presidents in succession have paid lip service to preventing dangerous climate change, these commitments haven't lead to any significant action given the magnitude of the challenge.

Elizabeth sums up the current situation neatly:

Meanwhile, as John Boehner chortles about the dangers of CO2, the world keeps heating up. According to the National Oceanic and Atmospheric Administration, the first half of 2010 was the warmest January to July on record. And this is just the beginning. Owing to the inertia of the climate system, the warming that we’re experiencing is only a fraction of the temperature increase that’s already guaranteed.

The United States is no longer the world’s largest carbon emitter; that honor belongs to China. But we’re still the largest source of warming in terms of cumulative emissions, and on a per-capita basis Americans produce more CO2 than just about anyone except the Qataris. Without the active support of the United States, there’s no way to make progress on emissions globally. This month, negotiators will meet in Cancún for another round of international climate talks, and it’s a safe bet that, apart from the usual expressions of despair, nothing will come of them. It may seem that we’ll just keep going around and around on climate change forever. Unfortunately, that’s not the case: one day, perhaps not very long from now, the situation will spin out of our control.

The window left for action is closing quickly. If the new members of the House have their way, it will be slammed shut permanently, in blithe ignorance of the consequences.

Nicaragua adopts aggressive renewable energy targets

La Vieja Managua (Nicaragua)
Originally uploaded by denetsnuff

Nicaragua is setting aggressive targets to replace fossil fuel use with renewable fuels, as discussed in this Renewable Energy Magazine article. Under a plan announced by Emilio Rappaccioli, the Nicaraguan Minister of Energy and Mines, on October 29th, the goal is to increase the use of renewables to 94 percent by 2017 and to be at the 100 percent renewable mark by 2025. Currently, 66 percent of Nicaragua's thermal energy is petroleum based.

If we could get the US to make a similar commitment, we'd be able to make some serious progress toward reversing climate disruption.

Solar power creates electric grid challenges in Germany

The accelerating adoption of solar panels in Germany looks like a case of too much of a good thing. The antiquated power grid across the country is having trouble coping with the fluctuations resulting from feed-ins from photovoltaic systems and wind turbines.

As reported in this UPI.com news story:

Experts have long called for an overhaul of the European power grid to integrate the fluctuating renewable energy sources such as solar and wind power.

Experts forecast between 8 gigawatts and 10 GW of solar power capacity to be installed this year -- the equivalent of roughly 10 large coal-fired power plants. In 2009, only 4 GW were installed.

With an equally fragmented and outdated power grid, the U.S. would do well to overhaul its own infrastructure in preparation for more extensive use of renewable energy. Google's investment in the Atlantic Wind Connection is a step in the right direction.

Mini Goes Electric

Another automobile manufacturer, Mini, dips its cast aluminum toe into the electric vehicle market, but this type it's scooter prototypes that appeared at the Paris Motor Show, rather than cars, as profiled by Wired magazine.

Details are scarce. It has an electric motor. You plug it in. But, the prototypes recall classic Italian scooters and Mods versus Rockers schtick.

There are three “interpretations” of the design by Adrian van Hooydonk, senior VP of design for BMW Group. One is a two-seater done up in the same colors (matte charcoal and yellow) as the Mini-E electric prototype. The second is a single-seater Mini calls “almost purist in design.” The third draws on British ’60s pop culture, particularly “the distinctive graphics of the Mod era.”

As a Mini Cooper owner and an admirer of the technology emerging from this BMW Group, it will be interesting to see how this plays out.

Saab Goes Electric

From borderline extinction to a surprising renaissance under the Dutch firm Spyker, Saab may still have some innovative ideas left in its automotive bag of tricks. The company has unveiled its first electric car, an introduction which should help keep alive its reputation as an idiosyncratic but forward-looking auto manufacturer, as reported by AllCarsElectric.

Mats Fägerhag, Executive Director of Vehicle Engineering at Saab Automobile, says that "this program is designed to evaluate the potential for developing a high performance, zero emission electric vehicle and is an important next-step in the extension of our EcoPower propulsion strategy".

Let's hope that this is a positive step toward recovery for a car company that (at least until the GM years) always bristled with personality.

Real-world road test: life with a plug-in Prius

Adam Vaughan puts the new plug-in Prius through its paces in London and its outskirts and discovers that the vehicle is reasonably practical. But clearly more charging points are needed for this type of vehicle. Even in the mighty metropolis of London there are far too few.

Plugged in via the leads in the boot, the electric battery was topped up for free in an hour and a half. While Westfield’s developers deserve credit for installing the points in the first place, they also warrant a raspberry for allowing any car to take the charging spaces – they’re not reserved for electric vehicles.

And here lies the only real drawback to PHEVs: there are not enough places to charge them, even in the urban areas where they’re best-suited. Home-charging, in particular, is tricky in cities because of the lack of driveways and garages. Of course, because you have petrol as a backup, you don’t have to panic about recharging as you would with a 100% electric vehicle. But by not being able to charge out and about, you lose the unique environmental and financial benefits.

It's promising technology if we find smarter ways of generating the energy supplied to the charging points, but that's another problem for another day.

Life Cycle Analysis: Electric Vehicles

A recent Gizmag article summarized the findings of a life cycle assessment of the lithium-ion batteries often used in electric vehicles. Scientists from the Swiss Federal Laboratories for Materials Testing and Research tracked the environmental footprint of Li-ion batteries, including the charging cycle when tied to a typical European electricity mix, with generally positive findings.

The study shows that the electric car’s Li-ion battery drive is in fact only a moderate environmental burden. At most only 15 per cent of the total burden can be ascribed to the battery (including its manufacture, maintenance and disposal). Half of this figure, that is about 7.5 per cent of the total environmental burden, occurs during the refining and manufacture of the battery’s raw materials, copper and aluminum. The production of the lithium, in the other hand, is responsible for only 2.3 per cent of the total.

“Lithium-ion rechargeable batteries are not as bad as previously assumed,” according to Dominic Notter, coauthor of the study which has just been published in the scientific journal Environmental Science & Technology.

Now if we could just get past the controversy on whether there is a pending lithium shortage, the technology would have a clear path to success.

Kia set to introduce electric vehicle

The Kia Electric POP (highlighted by Fast Company) hints at the future of electric vehicle design. The tiny three-seater will be on display in October at the Paris auto show. Bring sun glasses.

Let there be light (and heat)

A new process developed by Stanford engineers--photon-enhanced thermionic emission (PETE, for short)--promises to boost solar power considerably, bringing it within a range to compete with oil.

"This is really a conceptual breakthrough, a new energy conversion process, not just a new material or a slightly different tweak," said Nick Melosh, an assistant professor of materials science and engineering, who led the research group. "It is actually something fundamentally different about how you can harvest energy."

Watch and judge for yourself.