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The ALVA Award

The ALVA Award

Sebastian Trun on Innovation and Execution

The ALVA Award

The ALVA Award

This year's winner of the ALVA Award was Sebastian Trun, known for the Google Car, but also Google Glass and Udacity. His talk during the 99U event is inspiring to watch, you can view it on the 99U Website.

Sebastian Trun's motto:

“Build it. Break it. Improve it.”

Click the Video below to play:

Posted in autonomous vehicle and tagged with Google Car, Sebastian Trun, Google Glass, Udacity, 99U, ALVA.

May 17, 2013 by Roelof Reineman.
  • May 17, 2013
  • Google Car
  • Sebastian Trun
  • Google Glass
  • Udacity
  • 99U
  • ALVA
  • autonomous vehicle
  • Post a comment
Click to Zoom

Click to Zoom

EV Numbers the Netherlands: 9256

Click to Zoom

Click to Zoom

The latest and greatest statistics came out today from AgentschapNL, the electric vehicle data for last month. By the end of April, there were 9256 EVs in the Netherlands, still on par to reach our goal of 20.000 in 2015. Without further ado:

Click to Zoom

Click to Zoom

There is growth in most categories, though in some cases a small decline can be seen. It would be interesting to know if this is because some EVs have broken down, or have been exported abroad for example. In case you read this and have an idea, feel free to contact me on this and I'd be happy to share your input here.

Click to Zoom

Click to Zoom

Over the past reports from AgentschapNL, I pieced together the data the published on the Top5 breakdown per car model, some interesting patterns emerge here as well. Clearly as expected, the Ampera is the clear winner here, but also the Volt is doing strong. The Kangoo is keeping up nicely as well and highest in the commercial van category.

Click to Zoom

Click to Zoom

Click to Zoom

Click to Zoom

And I did a similar thing for the data that got collected on the chargers in the Netherlands, though unfortunately there has been a change in data source around last october. The difference visible is most likely due to private owned chargers counted as semi-public chargers, but this data can not be corrected for this.

Click to Zoom

Click to Zoom

Click to Zoom

Click to Zoom

Posted in electric vehicle and tagged with electric vehicle, statistics, Netherlands, chargers, Top5.

May 14, 2013 by Roelof Reineman.
  • May 14, 2013
  • electric vehicle
  • statistics
  • Netherlands
  • chargers
  • Top5
  • electric vehicle
  • Post a comment
Metal-Air Batteries: The trick is to keep CO2 out

Metal-Air Batteries: The trick is to keep CO2 out

Interview Phinergy Aviv Tzidal by Joop Soesan

Metal-Air Batteries: The trick is to keep CO2 out

Metal-Air Batteries: The trick is to keep CO2 out

A while ago my friend Joop Soesan had the opportunity to interview Aviv Tzidal from Phinergy. Phinergy recently announced their battery technology based on aluminium and promises ranges of 1000km with a relatively cheap solution.

Rusting of Aluminium

The battery which has been developped by Phinergy is a so-called Metal-Air battery. These types of batteries use a rusting process to free up electrons which can be used to power motors. In chemistry, a clean metal has a higher energetic value than their rusted counterpart. As a normal process, rusting can take many years to complete. For aluminium rusting takes a lot longer even, as the rust on the aluminium provides a sort of coating, making it immuun to further rusting.

“In a car we have something called ‘sense of freedom’, freedom is what cars give you, not only transportation. Because for transportation you can go with the bus”
— Aviv Tzidal

A(n Alkalyne) Solution

Phinergy uses an alkalyne solution (water) to clean the aluminium plates in the battery from rust so that the rusting process can continue. Electricity is being generated when the water clears off the rust. When the aluminium plates are not in contact with the water, the rusting stops and there is no electricity coming from the battery. The battery is in a dry-state and can stay like that forever. Over time when it is used, the aluminium gets consumed and the water solution gets saturated with aluminium-rust.

Primary / Secondary

The aluminium in the battery gets consumed in the process, that is why it is a better bet to have the aluminium battery act as the secondary energy source in your car. The primary battery will be for example a lithium based one that is sized for your normal daily usage. In the West, average daily usage of a car is 39km a day. In this way, the size of the lithium battery can be decreased from the 'standard' 150km to be suitable for just 50km. This is enough for the average trip you would make, decrease the lithium battery to a third of its original size and result in a lighter/cheaper solution. The aluminium battery gets added and gets used only when you have to drive a longer trip.

The lithium battery provides the power for your basic mobility and if you need more, you can 'borrow' the extra energy from the aluminium battery. It is similar to the credit line you have with a bank. The aluminium battery is a credit line for energy which you can draw from when you drive a longer trip.

“This is a credit line for energy!”
— Aviv Tzidal
The Primary Battery (Lithium for example) can supply and store energy. The Secondary Battery (Aluminium), can only supply energy.

The Primary Battery (Lithium for example) can supply and store energy. The Secondary Battery (Aluminium), can only supply energy.

Recycling

At some point, the water can not hold more rust (aluminium). The water that is fully saturated with rust can be replaced at a gas station for free; you will get free clean water. For a gas station, this dirty water is worth €3-4, because they can sell back the rust (in powder form) to an aluminium producer like Alcoa.

The rusty water will be separated to water and aluminium hydroxide (powder) at each station. The powder will be transported back to Alcoa and Alcoa pays the gas station for this powder.

Aluminium cheaper than fuel?

A comparison is made between conventional gas and consuming aluminium in the battery. The details are shown below:

For Aluminium it is assumed:

  • €2-3 per kg aluminium
  • 75 kg aluminium battery
  • 600 kWh battery
  • 4000 km range

Fuel:

  • 4000 km range
  • 1:20 Fuel Consumption
  • 200 liters needed
  • €2 per liter fuel

The comparison between aluminium and conventional fuel according to Phinergy

The comparison between aluminium and conventional fuel according to Phinergy

New Technology?

It appears the principles behind this technology are not exactly new, however, recent developments in nano technology have improved on it, making this a viable solution. Earlier attempts at a metal-air battery have failed due to CO2 poisoning and not being able to last for long periods on end.

Availability of Technology

Currently Phinergy works closely together with Renault on developping a car that uses the aluminium battery. The first car will be on the street before 2017 and by the end of this year, other OEMs can also join in on developping this technology with Phinergy and create a vehicle that utilizes this technology.

 

I would like to thank Joop Soesan for his time recording this interview and Aviv Tzidal for taking time to have this interview. For those interested in the full interview, please listen to the audio file below:

Posted in electric vehicle, Energy and tagged with electric vehicle, phinergy, battery.

May 13, 2013 by Roelof Reineman.
  • May 13, 2013
  • electric vehicle
  • phinergy
  • battery
  • electric vehicle
  • Energy
  • Post a comment
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Roelof Reineman

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