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WASHINGTON, March 10 (Reuters) — U.S. regulators on Thursday issued final rules eliminating the need for automated vehicle manufacturers to equip fully autonomous vehicles with manual driving controls to meet crash standards.

Automakers and tech companies have faced significant hurdles to deploying automated driving system (ADS) vehicles without human controls because of safety standards written decades ago that assume people are in control.

Last month, General Motors Co (GM.N) and its self-driving technology unit Cruise petitioned the U.S. National Highway Traffic Safety Administration (NHTSA) for permission to build and deploy a self-driving vehicle without human controls like steering wheels or brake pedals.

DUGWAY, Utah — Army Green Berets from the 1st Special Forces Group conducted two weeks of hands-on experimentation with Project Origin Unmanned Systems at Dugway Proving Ground. Engineers from the U.S. Army DEVCOM Ground Vehicle Systems Center were on site to collect data on how these elite Soldiers utilized the systems and what technology and behaviors are desired.

Project Origin vehicles are the evolution of multiple Soldier Operational Experiments. This GVSC-led rapid prototyping effort allows the Army to conduct technology and autonomous behavior integration for follow-on assessments with Soldiers in order to better understand what Soldiers need from unmanned systems.

For the two-week experiment, Soldiers with the 1st Special Forces Group attended familiarization and new equipment training in order to develop Standard Operating Procedures for Robotic Combat Vehicles. The unit utilized these SOPs to conduct numerous mission-oriented exercises including multiple live-fire missions during the day and night.

Ford and Purdue University researchers have developed a new, patent-pending charging system that solves one of the biggest problems with electric vehicles. Of course, we’re talking about the charging time it takes to top off a battery versus spending a few minutes at a gasoline pump.

Aside from range, charging time is one of the biggest problems for current electric vehicles. There’s plenty to love about EVs, but having to sit for 20–30 minutes and wait for the battery to recharge isn’t ideal, which is why Ford’s new cooling cables promise to recharge an electric vehicle in roughly 5-minutes.

Even with DC fast charging appearing at more Tesla stations, most vehicles with ideal battery, charger, and cable conditions still take upwards of at least 20 minutes. The video below explains how most Tesla systems can handle upwards of 520 amps of current, which is quite a lot. However, Ford and Purdue can deliver over 2,400 amps to their vehicles, resulting in drastically faster charging times.

When Google unveiled its first autonomous cars in 2010, the spinning cylinder mounted on the roofs really stood out. It was the vehicle’s light detection and ranging (LiDAR) system, which worked like light-based radar. Together with cameras and radar, LiDAR mapped the environment to help these cars avoid obstacles and drive safely.

Since a then, inexpensive, chip-based cameras and have moved into the mainstream for collision avoidance and autonomous highway driving. Yet, LiDAR navigation systems remain unwieldy mechanical devices that cost thousands of dollars.

That may be about to change, thanks to a new type of high-resolution LiDAR chip developed by Ming Wu, professor of electrical engineering and computer sciences and co-director of the Berkeley Sensor and Actuator Center at the University of California, Berkeley. The new design appears Wednesday, March 9, in the journal Nature.

There is an exciting branch of battery research that involves combining the strength and durability of next-generation materials with their energy storage potential. This could see car panels double as their batteries, for example, and in a new example of what this could look like scientists have developed a “power suit” for electric vehicles that could not only extend their range, but give them a handy boost in acceleration at the same time.

Sometimes known as structural batteries, we’ve seen some interesting recent advances in this space from research groups and even big-name automakers. Back in 2013, Volvo demonstrated carbon fiber body panels with energy storage potential, and we’ve seen other teams show off similar concepts since. These projects sought to combine the high energy density of batteries with the ultra-fast discharge rates of supercapacitors, in materials strong enough to serve as a car’s exterior.

This new breakthrough continues this line of thinking, with scientists at University of Central Florida and NASA designing a new material featuring unique properties that allow for not just impressive energy storage potential, but also the strength needed to endure a car crash.

The world’s first demonstration device to produce 1,000 tons of gasoline per year from carbon dioxide (CO2) hydrogenation has completed its technology evaluation and trial operation.

Located in the Zoucheng Industrial Park, Shandong province, China, the project has been jointly developed by the Dalian Institute of Chemical Physics (DICP) of the Chinese Academy of Sciences (CAS) and the Zhuhai Futian Energy Technology company. The hydrogenation of CO2 into liquid fuels and chemicals can not only realize the resource utilization of CO2 but also facilitate the storage and transportation of renewable energy.

However, activation and selective conversion of CO2 are challenging. A technology that can selectively produce energy-dense, value-added hydrocarbon fuels will provide a new route to promote the clean, low-carbon energy revolution.

Tesla will sell car insurance, but electric-vehicle insurance and repairs are more expensive than for traditional cars. Here’s why.


The average cost of repairs are nearly 3% higher for a small EV versus a small internal-combustion engine car, says CCC Intelligent Solutions, a data and consulting firm that has examined the impact of EVs on the automotive, insurance and repair industries.

The same researchers found that spending on replacemet parts as a share of the overall repair costs was higher for a small EV despite that EV having 9.1 parts replaced per claim on average, versus 9.6 parts for small ICE cars. Access the full report here.

“The repair and replacement parts for many components of EVs are different from gasoline cars, and their relative scarcity/lack of economies of scale, plus their higher price, means that the insurance premiums to cover them are also higher,” said Lane of the University of Kansas.

Details have been disclosed about a now-addressed critical vulnerability in Microsoft’s Azure Automation service that could have permitted unauthorized access to other Azure customer accounts and take over control.

“This attack could mean full control over resources and data belonging to the targeted account, depending on the permissions assigned by the customer,” Orca Security researcher Yanir Tsarimi said in a report published Monday.

The flaw potentially put several entities at risk, including an unnamed telecommunications company, two car manufacturers, a banking conglomerate, and big four accounting firms, among others, the Israeli cloud infrastructure security company added.

Using corn for fuel seems like a dumb idea in light of new research.

Recommended Books & Car Products — http://amzn.to/2BrekJm.
EE Shirts! — http://bit.ly/2BHsiuo.

Ethanol makes up 10% of most of the gasoline sold in the United States. A large part of why Ethanol is so prevalent is that the Renewable Fuel Standard, created in 2005, wanted to reduce the emissions of the fuels we use. Ethanol created from corn is renewable, because the corn takes carbon from the atmosphere to grow, creating a cycle that minimizes how much carbon is added to the atmosphere. At least, that’s the story we were told.

New research out of University of Wisconsin — Madison, suggests that “the carbon intensity of corn ethanol is no less than gasoline and likely at least 24% higher.” What’s the solution? We need to choose options that have a greater percentage of net emissions reductions, so that we don’t unintentionally increase emissions if regulators estimated predictions are incorrect.

Video References:
Main Study — https://www.pnas.org/doi/10.1073/pnas.2101084119
EPA Impact Analysis — https://19january2017snapshot.epa.gov/sites/production/files…r10006.pdf.
UW Article — https://news.wisc.edu/at-bioenergy-crossroads-should-corn-et…ew-mirror/
Oxygenated Fuels — https://www.epa.gov/ust/fuel-oxygenates-and-usts.
TEL to MTBE to Ethanol — https://doi.org/10.1080/10406026.2014.967057
Octane Numbers — https://energy.mit.edu/wp-content/uploads/2008/01/MIT-LFEE-08-001-RP.pdf.
Harvard Law Research — https://eelp.law.harvard.edu/2020/09/next-generation-complia…odern-era/
Harvard Law Research Pt. 4 — http://eelp.law.harvard.edu/wp-content/uploads/Cynthia-Giles-Part-4-FINAL.pdf.
Renewable Fuels Standard — https://www.epa.gov/renewable-fuel-standard-program.
US DOE — https://afdc.energy.gov/fuels/ethanol_fuel_basics.html.
Pro Corn Ethanol Study — https://afdc.energy.gov/files/u/publication/ethanol-ghg-reduction-with-greet.pdf.
Counter Study — https://iopscience.iop.org/article/10.1088/1748-9326/ac2e35/meta.

Engineering Explained is a participant in the Amazon Influencer Program.

BEIJING — The first electric car with Huawei’s HarmonyOS operating system is set to begin deliveries at a ceremony on Saturday in Shanghai, according to an announcement on social media.

In December, Huawei’s consumer business group CEO Richard Yu spent an hour at a winter product launch event promoting the car, the Aito M5. But the Chinese telecommunications company has emphasized it will not make cars on its own, rather working with auto manufacturers on autonomous driving and other technology.

Seres is the automaker behind the Aito M5. The company is also known as SF Motors and is a Silicon Valley-based subsidiary of automaker Sokon, which is based in Chongqing, China, according to the parent company’s website.