Recycling, while widely promoted, is fundamentally limited and cannot solve the problems of overconsumption, waste, and environmental degradation. There is NO truly circular solution.

Here are the key arguments behind this perspective:

Downcycling Most materials (especially plastics) degrade in quality when recycled. This process—called downcycling—means a plastic bottle might be recycled into carpet fibers or packaging, but not into another bottle. Eventually, the material becomes unusable and ends up as waste.

Plastic recycling is especially ineffective Globally, only about 9% of plastic ever produced has been recycled. Many plastics are non-recyclable due to chemical additives, mixed materials, or contamination. Even “recyclable” items often aren’t recycled due to market or facility limitations.

Energy and Emissions Costs Recycling itself consumes energy, emits carbon, and requires labor and infrastructure. For some materials, such as aluminum and paper, recycling is relatively efficient. But for others, like composite plastics or textiles, the energy cost may outweigh the environmental benefit.

Waste Exports and Ecological Injustice Developed countries [typically the Global North] often export waste to poorer nations [Global South], where it is sorted under hazardous conditions or simply dumped. This shifts environmental and human costs rather than solving them.

Economic Issues Recycling depends on market demand for recycled materials. When virgin materials (like oil for plastic) are cheaper, recycling becomes unprofitable and infrastructure collapses—as seen after China’s 2018 ban on imported waste (Operation National Sword).

Greenwashing Recycling is often used to shift responsibility onto individuals and away from producers. It provides the illusion of sustainability while overproduction and disposable design continue unchecked.

Toxic chemicals

  **Toxic chemicals are used or released at various stages of all recycling processes, particularly in plastic, electronic, and paper recycling. These substances can pose risks to workers, communities near recycling facilities, and ecosystems. Here are the major types of toxic chemicals involved:**

   **In plastic recycling, the sorting, melting, and reprocessing of plastics can release toxic additives originally present in the material. Common additives include flame retardants, phthalates, bisphenol A (BPA), and per- and polyfluoroalkyl substances (PFAS). When plastics are heated or chemically treated during recycling, they can also release dioxins, styrene, and volatile organic compounds (VOCs), which are harmful to respiratory and nervous systems.**

    **In e-waste recycling, especially in informal or poorly regulated facilities, the extraction of metals from electronic devices often involves burning wires, acid baths, and open-air melting. This releases heavy metals such as lead, cadmium, mercury, and arsenic, as well as persistent organic pollutants (POPs) like polybrominated diphenyl ethers (PBDEs). These processes contaminate air, soil, and water and are especially hazardous in countries that handle global e-waste without adequate safety infrastructure.**

    **In paper recycling, ink removal (de-inking) and bleaching can involve chemicals like sodium hydroxide, hydrogen peroxide, and chlorine compounds. Although many facilities have shifted to less harmful agents, some still use chlorine-based bleach, which can produce carcinogenic byproducts such as dioxins and furans.**

  **In textile recycling, chemical-intensive processes are used to separate blended fibers or remove dyes. These may include strong acids, alkalis, and solvents, which can be hazardous if not properly managed. Discharge of untreated effluents from textile recycling facilities can contaminate local waterways.**

Everything we make returns to the Earth either as food or poison.