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Smartphones: Can they be truly eco-friendly?

  • September 30, 2021

The average smartphone is millions of times more powerful than the computers that guided Nasa astronauts to the moon. 

That’s quite something given that they tend to weigh less than 200g. But for all their physical lightness, they have a heavy carbon footprint. Besides being responsible for between 40kg and 80kg of carbon dioxide (CO2), the production process also requires the extraction of heavy metals like gold and cobalt which often causes toxic pollution to leak from mines and refineries. 

Heavy metal mining often drives local pollution

As leading phone manufacturers have taken to launching new models on a regular basis, thereby encouraging older ones to be discarded more quickly, one company has come to stand out from the crowd. Fairphone, which claims to make “no secret” of putting “people and planet” first, embraces a modular design to increase the lifespan of its products by making them easier to repair.

Nine years after releasing its first model, the Netherlands-based company is now poised to launch Fairphone 4, following the announcement on September 30th. But how sustainable are they?

A look at Fairphone 

In the company’s own 2017 recycling report, it admitted that only 30% of materials used in Fairphone 2 could be recycled. That had risen to 50% in their 2020 impact report which looked at the recyclability rate of materials in the Fairphone 3. 

How that compares to other manufacturers is hard to say. According to environment group, Greenpeace, Apple are far more transparent than most other phone makers, yet even they don’t publish information on the recyclability of their phones.

UN figures suggest only 20% of electronic waste is formally recycled

What is clear, however, is that each gram of precious heavy metals recovered from a Fairphone is a gram that doesn’t have to be blasted from a mine or the side of a mountain and transported across the world for processing. 

But one thing Fairphone doesn’t have, is a decarbonization plan. The company’s Innovation Impact Director Monique Lempers told DW they are in the process of drafting such targets, but until now, have sought to reduce emissions by extending the longevity of their phones.   

“We calculated that if we set a lifespan target of four and a half years, this would reduce the carbon footprint of the phone by 30%,” Lempers said.

Their phones are modular, meaning individual components can be swapped if damaged or outdated. This is unlike most other phones, which if broken, often have to be replaced entirely. 

For this reason, Fairphones score 10/10 on iFixit’s repairability ranking, compared with only 6/10 for the iPhone 12. iFixit is a US wiki-based site that teaches consumers how to repair their own devices, as well as providing repairs advice from their shops. 

Fairphone’s Lempers says early indications suggest that on average, Fairphone 3 is used for up five years, more than double that of a typical smartphone. 

“Using this technology for longer can have a huge effect,” managing director of iFixit Matthias Huisken told DW. “Not replacing these things every two to three years but instead replacing them every five or every ten would make a huge difference.”

Too small to call the shots?

Yet for all their good intentions, Fairphone’s aims are frustrated by a lack of control. 

Fairphones run Google’s Android operating system. As phone hardware improves, Google updates Android to increase functionality, and these updates render long-life hardware of Fairphones obsolete. Fairphone responds by slowing the frequency of updates on their phones, but certain apps require the latest Android version to run. 

The release of ever newer models is a big driver of smartphone e-waste

“If you can’t do your mobile banking safely on the phone anymore because there’s no more security updates, even though the hardware may be perfectly functioning, you’re very likely to replace it because you want a phone that’s safe and up-to-date,” Huisken said. 

“To gain more control over these aspects, they need to grow. They need to become more relevant,” he added. 

Fairphone’s aim, however, is not to compete with the major smartphone makers. “We want to make the electronics industry more responsible, by showing that there is a market for an ethical and sustainable phone,” said Monique Lempers.

She regards the company’s smaller size as a positive. “We see that some of our peers are more afraid to take the risk to invest or source from certain factories or mines that require support,” she continued. “I think being smaller comes with advantages as well as with challenges.”

Of the 1.35 billion phones sold in 2020, Fairphone sales made up only 95,000.

Is a zero-impact phone even possible?

Fairphone isn’t the only company attempting to make a low-impact smartphone. German Shiftphone similarly embrace modular design, winning them a 2021 German Sustainability Award. This signals a potential trend in low-impact smartphone design, but how possible is a no-impact smartphone? 

“I think getting to zero might be challenging. It’s about getting very close,” said Lofti Belkhir Professor of Engineering at Canada’s McMaster University and co-author of a 2017 study quantifying the carbon footprint of networking devices.

He says a no-impact phone is only possible when every part of the supply chain matches up. In the case of Fairphone that would mean Google, and those who manufacture their hardware would also have to be no-impact. 

“You can’t just be an isolated company, no matter how noble and how dedicated smart you are and be able to succeed in this kind of system.”

But he describes himself as a “big believer in entrepreneurs” and says success stories of companies can inspire and prove what is doable.

“Tesla has, from a single small company, been able to force the hand of almost all car manufacturers to go into electric cars. And today, their market value is bigger than all the big three in the US.”

  • Critical raw materials: Toxic, rare and irreplaceable

    Antimony: The pharaoh’s eyeliner

    Antimony is a gray metalloid, which is often used to harden other metals. The origin of its name is disputed. One speculation claims it derives from “anti” and “monos,” which collectively mean “a metal not found alone”. Antimony often occurs as a compound. In ancient Egypt and ancient India, it was powdered and used as medicine or compressed into sticks for use as cosmetics — especially eyeliner.

  • Critical raw materials: Toxic, rare and irreplaceable

    Baryte: The ‘heavy’ crystal

    Baryte, which means “heavy” in Greek, is a barium sulfate, commonly found in lead-zinc veins in limestone. Its crystals, which often grow in sand and contain grains of sand within their structure, form into clusters known as baryte roses. Baryte can be clear, or can shimmer in hues of yellow, red, green or pale blue.

  • Critical raw materials: Toxic, rare and irreplaceable

    Bismuth: The rainbow metal

    The incredible staircase-like shapes that characterize bismuth are the result of the outside growing faster than the inside. Another unusual feature of this brittle crystalline metal is that it is denser in liquid form than in a solid state. When it freezes, bismuth — just like water — expands. It is used in fire detectors and extinguishers, as well as in cosmetics and paints.

  • Critical raw materials: Toxic, rare and irreplaceable

    Cobalt: The goblin ore

    Cobalt takes its name from subterranean German goblins known as “Kobolde.” Centuries ago, German miners inhaled toxic fumes released from rocks while extracting ores during the melting process. When they fell sick, they blamed it on goblins. In 1960 cobalt caused a series of deaths when breweries in Quebec added it to their beer to help ensure a good foam. Nearly 50 people died from heart failure.

  • Critical raw materials: Toxic, rare and irreplaceable

    Fluorspar: The colorless flux

    Fluorspar is a colorless, transparent mineral that often contains impurities and hydrocarbons, and which can change color and glow when exposed to ultraviolet light. It is frequently used to lower the melting point of metals during processing. Fluorspar occurs as a compound with lead and silver ores, as well as alone in limestone.

  • Critical raw materials: Toxic, rare and irreplaceable

    Gallium: The liquid metal

    Gallium melts at just 29 degrees Celsius (84 degrees Fahrenheit), making it the only metal to melt when held in a human hand. By contrast, it doesn’t start to boil until it reaches the unusually high temperature of 2,204 degrees Celsius. Gallium is generally produced as a byproduct of bauxite and is used for semiconductors. When added to other metals, gallium causes them to become brittle.

  • Critical raw materials: Toxic, rare and irreplaceable

    Lithium: The prime matter

    Lithium is the lightest metal of all and the least dense solid element. If it weren’t reacting with water, it would float on its surface. Lithium is one of the three elements — besides hydrogen and helium — to form during the Big Bang. Current theories suggest there should be three times more lithium in the universe today than is actually the case. It is not known where the rest of it went.

  • Critical raw materials: Toxic, rare and irreplaceable

    Niobium: The tear of the goddess

    When added to steel, niobium creates an outstanding structural strength, even though it only represents 0.1% of the alloy. It is used in jet engines, superconducting magnets and MRI machines. Niobium is named after the Greek goddess of tears, Niobe, daughter of mythological King Tantalus, whose name was later given to the metal tantalum. Niobium and tantalum are always found together in nature.

  • Critical raw materials: Toxic, rare and irreplaceable

    Tungsten: The wolf’s foam

    In 1546, scientist Georgius Agricola wrote about German Ore Mountain miners who, during the melting process, reported a black and “hairy” metal that reduced their tin yield like a “wolf devours a sheep.” Foam appeared on the surface, binding to their tin inseparably. The miners named the metal wolffram, meaning wolf’s foam. The name was later dropped for the Swedish alternative: tungsten.

    Author: Michel Penke


 

Article source: https://www.dw.com/en/smartphones-can-they-be-truly-eco-friendly/a-59356342?maca=en-rss-en-all-1573-rdf

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