Subheader Icon 877-412-3651
Request a quote
Article New Credit Card That Calculates Your Carbon-Emission Spending Image
Image by Elias Sch. from Pixabay

How much carbon emissions does a human being produce daily? The answer to this question is not as simple as calculating the CO2 emissions from our vehicles or the electricity in our homes. It’s much more than that – every product we buy has an impact on the environment in terms of carbon emissions. Luckily for green-oriented people, there’s a new credit card that will help them calculate how much carbon emissions are there in a product.

A Swedish financial technology company called Doconomy invented the sustainable DO Black Card in collaboration with MasterCard and United Nations Climate Change Secretariat. This credit card will not only show money balance and limit spending according to how much credit the user has left, but it will also limit spending according to carbon emissions associated with every purchase. Yes, when you cross over the carbon limit with the DO Black Card, you will not be able to spend any more money. Ouch!

The user will be able to monitor the credit and carbon balance within the DO app. According to the company, the mobile app uses the Aland index to calculate carbon emissions of every transaction. To help the user stay within limits though, Doconomy will reward spending on “green” purchases with additional credit. In other words, if you buy from retailers that have products with less carbon footprint, you will be rewarded with more carbon credit on the balance. The most responsible customers can even use the credit card to donate to UN-certified green project throughout the world. Besides helping its customers and environmentally friendly retailers, Doconomy also made sure that the credit card itself is made of bio-sourced materials that aren’t harmful to the environment. The company even went as far as to use ink made from tiny air pollution particles, thus cleaning the air we breathe. Sweet!

Related Articles

Latest China Moves Closer to Opening Deep Geological Nuclear Waste Lab Nearly 1,837 Feet Below Surface Image
Construction

China Moves Closer to Opening Deep Geological Nuclear Waste Lab Nearly 1,837 Feet Below Surface

A Critical Step for Long-Term Nuclear Safety China is nearing a major milestone in its nuclear energy program as engineers push forward with a deep geological research laboratory designed to study the safe disposal of radioactive waste. Known as the Beishan Underground Research Laboratory, the facility is taking shape in the remote Gobi Desert in Gansu province. As a result, when completed, it

Latest A Guide to Purchasing Inconel: Tips and Considerations Image
Aerospace

A Guide to Purchasing Inconel: Tips and Considerations

Inconel® is a family of nickel-chromium superalloys known for high strength, corrosion resistance, and oxidation resistance at elevated temperatures. Well-suited to demanding applications, Inconel alloys typically comprise 50–70% nickel, 15–25% chromium, and other elements such as iron, cobalt, molybdenum, and tungsten. The specific composition of an Inconel alloy depends on its intended applicati

Latest Hyundai Steel Plans Hydrogen-Ready Low-Carbon Mill in Louisiana Image
Industry News

Hyundai Steel Plans Hydrogen-Ready Low-Carbon Mill in Louisiana

Hyundai Steel plans to build a hydrogen-ready low-carbon steel mill in Ascension Parish, Louisiana. The project carries an estimated cost of $6 billion and marks the company’s first U.S. steelmaking facility. State officials say the mill will support automotive, energy, and industrial markets that need cleaner flat-rolled and long-product supply. The plant forms part of Hyundai’s broader push t

Latest 3D-Printed Metal Matrix Composite Could Boost High-Temperature Aerospace Components Image
Aerospace

3D-Printed Metal Matrix Composite Could Boost High-Temperature Aerospace Components

A research team at the University of Toronto has created a metal matrix composite that stays light, strong, and stable at temperatures where most aluminum alloys fail. The material is produced through a combination of laser-based additive manufacturing and micro-casting, giving it a reinforced-concrete-like architecture on a microscopic scale. That structure delivers strength at both ambient and e