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Extraordinary Raw Materials in a Tesla Model S

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The Extraordinary Raw Materials in a Tesla Model S

Presented by: Red Cloud Klondike Strike (Equity crowdfunding in mining)

The Tesla Model S is the world’s most-wanted electric car, with 100,000 units already sold as of December 2015.

Critics have lauded the car for its impressive safety rating, range, and design. However, it is also worth considering that it is the incredible raw materials that go into the Tesla Model S that help to make all of these things possible.

Here’s what’s in a Tesla Model S:

Body and Chassis

Bauxite: The Tesla Model S body and chassis are built almost entirely from aluminum, which comes from bauxite ore. Aluminum is lightweight, which helps to maximize the range of the battery beyond that of other EVs. The total amount of aluminum used in the car is 410 lbs (190 kg).

Boron steel: High-strength boron steel is used to reinforce the aluminum at critical safety points. Boron steel is made from iron, boron, coking coal, and other additives.

Titanium: The underbody of the Tesla Model S is made from ultra high-strength titanium, which protects the battery from nearly any roadside force or piercing.

Interior

Rare Earth Metals: While Tesla engines and batteries do not use rare earths, most high-end car speakers and other electronics use rare earth elements such as neodymium magnets.

Plastic: Most plastics are made from petrochemicals.

Leather: Leather is derived from animal skin, mainly cowhides .

Silicon: Glass windows and other features are made from silicon.

Carbon fiber and copper wire are also used within the interior for various components.

Wheels

Bauxite: Aluminum alloy wheels are also made from bauxite ore.

Rubber: Natural rubber comes from rubber trees, but today 70% of US rubber is synthetic, made from petrochemicals.

Induction Engine:

Copper: Tesla’s high-performance copper rotor motor delivers 300 horsepower and weighs 100 lbs (45.4 kg).

Steel: The stationary piece of the engine, the stator, is made from both copper and steel.

Battery:

The Tesla battery pack weighs 1,200 lbs (540 kg), which is equal to about 26% of the car’s total weight. This puts the car’s center of gravity a mere 44.5 centimeters off the ground, giving the car unprecedented stability.

The battery itself contains 7,104 lithium-ion battery cells. Here’s what’s in each cell:

Cathode: The Tesla Model S battery cathode uses an NCA formulation with the approximate ratio: 80% nickel, 15% cobalt, and 5% aluminum. Small amounts of lithium are also used in the cathode.

Anode: The negative terminal uses natural or synthetic graphite to hold lithium ions. Small amounts of silicon are also likely used in the anode as well.

Electrolyte: The electrolyte is made of a lithium salt.

Copper and/or aluminum foil is also used in the battery as well.

Note: all numbers above are based on the 85 kWh battery model.

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Automotive

How Much Oil is in an Electric Vehicle?

It is counterintuitive, but electric vehicles are not possible without oil – these petrochemicals bring down the weight of cars to make EVs possible.

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How Much Oil is in an Electric Vehicle?

When most people think about oil and natural gas, the first thing that comes to mind is the gas in the tank of their car. But there is actually much more to oil’s role, than meets the eye…

Oil, along with natural gas, has hundreds of different uses in a modern vehicle through petrochemicals.

Today’s infographic comes to us from American Fuel & Petrochemicals Manufacturers, and covers why oil is a critical material in making the EV revolution possible.

Pliable Properties

It turns out the many everyday materials we rely on from synthetic rubber to plastics to lubricants all come from petrochemicals.

The use of various polymers and plastics has several advantages for manufacturers and consumers:

  1. Lightweight
  2. Inexpensive
  3. Plentiful
  4. Easy to Shape
  5. Durable
  6. Flame Retardant

Today, plastics can make up to 50% of a vehicle’s volume but only 10% of its weight. These plastics can be as strong as steel, but light enough to save on fuel and still maintain structural integrity.

This was not always the case, as oil’s use has evolved and grown over time.

Not Your Granddaddy’s Caddy

Plastics were not always a critical material in auto manufacturing industry, but over time plastics such as polypropylene and polyurethane became indispensable in the production of cars.

Rolls Royce was one of the first car manufacturers to boast about the use of plastics in its car interior. Over time, plastics have evolved into a critical material for reducing the overall weight of vehicles, allowing for more power and conveniences.

Timeline:

  • 1916
    Rolls Royce uses phenol formaldehyde resin in its car interiors
  • 1941
    Henry Ford experiments with an “all-plastic” car
  • 1960
    About 20 lbs. of plastics is used in the average car
  • 1970
    Manufacturers begin using plastic for interior decorations
  • 1980
    Headlights, bumpers, fenders and tailgates become plastic
  • 2000
    Engineered polymers first appear in semi-structural parts of the vehicle
  • Present
    The average car uses over 1000 plastic parts

Electric Dreams: Petrochemicals for EV Innovation

Plastics and other materials made using petrochemicals make vehicles more efficient by reducing a vehicle’s weight, and this comes at a very reasonable cost.

For every 10% in weight reduction, the fuel economy of a car improves roughly 5% to 7%. EV’s need to achieve weight reductions because the battery packs that power them can weigh over 1000 lbs, requiring more power.

Today, plastics and polymers are used for hundreds of individual parts in an electric vehicle.

Oil and the EV Future

Oil is most known as a source of fuel, but petrochemicals also have many other useful physical properties.

In fact, petrochemicals will play a critical role in the mass adoption of electric vehicles by reducing their weight and improving their ranges and efficiency. In According to IHS Chemical, the average car will use 775 lbs of plastic by 2020.

Although it seems counterintuitive, petrochemicals derived from oil and natural gas make the major advancements by today’s EVs possible – and the continued use of petrochemicals will mean that both EVS and traditional vehicles will become even lighter, faster, and more efficient.

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The Hydrogen City: How Hydrogen Can Help to Achieve Zero Emissions

Cities are drivers of growth and prosperity, but also the main contributors of pollution. Can hydrogen fuel the growth of cities with clean power?

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In the modern context, cities create somewhat of a paradox.

While cities are the main drivers for improving the lives of people and entire nations, they also tend to be the main contributors of pollution and CO2 emissions.

How can we encourage this growth, while also making city energy use sustainable?

Resolving the Paradox

Today’s infographic comes to us from the Canadian Hydrogen and Fuel Cell Association and it outlines hydrogen technology as a sustainable fuel for keeping urban economic engines running effectively for the future.

The Hydrogen City: How Hydrogen Can Help to Achieve Zero Emissions

The Urban Economic Engine

Today, more than half of the world’s population lives in cities, and according to U.N. estimates, that number will grow to 6.7 billion by 2050 – or about 68% of the global population.

Simultaneously, it is projected that developing economies such as India, Nigeria, Indonesia, Brazil, China, Malaysia, Kenya, Egypt, Turkey, and South Africa will drive global growth.

Development leads to urbanization which leads to increased economic activity:

The difficulty in this will be achieving a balance between growth and sustainability.

Currently, cities consume over two-thirds of the world’s energy and account for more than 70% of global CO2 emissions to produce 80% of global GDP.

Further, it’s projected by the McKinsey Global Institute that the economic output of the 600 largest cities and urban regions globally could grow $30 trillion by the year 2050, comprising for two-thirds of all economic growth.

With this growth will come increased demand for energy and C02 emissions.

The Hydrogen Fueled City

Hydrogen, along with fuel cell technology, may provide a flexible energy solution that could replace the many ways fossils fuels are used today for heat, power, and transportation.

When used, it creates water vapor and oxygen, instead of harmful smog in congested urban areas.

According to the Hydrogen Council, by 2050, hydrogen could each year generate:

  • 1,500 TWh of electricity
  • 10% of the heat and power required by households
  • Power for a fleet of 400 million cars

The infrastructure requirements for hydrogen make it easy to distribute at scale. Meanwhile, for heat and power, low concentrations of hydrogen can be blended into natural gas networks with ease.

Hydrogen can play a role in improving the resilience of renewable energy sources such as wind and solar, by being an energy carrier. By taking surplus electricity to generate hydrogen through electrolysis, energy can be stored for later use.

In short, hydrogen has the potential to provide the clean energy needed to keep cities running and growing while working towards zero emissions.

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