True Cellular Formulas Team - May 07, 2024

Tritan Bottles

Non-Toxic Hero or Overhyped Alternative?


The quest for safer and more sustainable materials has led to a critical examination of everyday products, particularly those made from plastic. As awareness of the potential health risks associated with chemicals like BPA (Bisphenol A) and BPS (Bisphenol S) has grown, consumers and manufacturers alike have sought alternatives. Tritan copolymer plastic has been presented as a safer choice, marketed for being free from these controversial chemicals. This blog explores whether Tritan plastic truly lives up to its claims as a non-toxic alternative.

Understanding Tritan Plastic

Tritan plastic is a type of polyester that distinguishes itself from traditional plastics by being free of BPA and BPS, chemicals known for their estrogen-like activity which can disrupt hormonal balance. Developed to offer a safer, more durable alternative for food and beverage storage, Tritan boasts clarity and toughness, making it popular for reusable water bottles and other consumer goods. Manufacturers highlight these properties to position Tritan as a healthy and environmentally friendly option, but the question remains: is it truly as safe as claimed?

Health Concerns Associated with Tritan Plastic

While Tritan is promoted as being free from BPA and BPS, this does not guarantee it is free from other harmful chemicals. Concerns arise particularly with dimethyl terephthalate (DMPT), a component in Tritan that may exhibit hormone-disrupting effects similar to BPA.[1] Research, including studies conducted on mouse mammary cells, indicates that Tritan, despite its safer profile, might still trigger slight hormonal disruptions.[1-2] These studies suggest that replacing BPA and BPS with other chemicals does not necessarily eliminate health risks and illustrates the complexity of fully assessing the safety of new plastic materials.

Comparing Alternatives

In the quest for safer bottle materials, glass and stainless steel offer significant benefits over Tritan and other plastics. Glass, renowned for its purity and inertness, ensures that there is no leaching of chemicals into beverages, maintaining the integrity of the liquid's taste and safety. On the other hand, stainless steel boasts durability and a high level of recyclability, presenting a robust option for those concerned about the environmental impact of their consumer choices. Both materials are time-tested and widely regarded by health experts as safer alternatives to plastics, providing superior options for those seeking to minimize their chemical exposure in everyday products.

Navigating Misinformation and Marketing Claims

The marketing of new materials like Tritan as "non-toxic" often taps into consumer concerns about health and safety, presenting these products as ideal solutions. However, such claims must be critically evaluated. While manufacturers may assert that their products are free from well-known harmful chemicals, these assertions do not always consider the potential risks associated with alternative chemical substitutes used in their products. Consumers are encouraged to dig deeper, examining independent research and consulting scientific studies that investigate the long-term effects of these substitutes. Understanding the full spectrum of material safety helps in making informed decisions and avoiding falling prey to potentially misleading marketing.

Environmental Impact of Plastic Alternatives

Beyond individual health concerns, the environmental impact of producing and disposing of materials like Tritan, glass, and stainless steel is a significant consideration. Tritan, while more durable than many other plastics, still contributes to plastic waste issues if not recycled properly. Glass, although highly recyclable, requires a considerable amount of energy for production, which can contribute to its environmental footprint. Stainless steel, noted for its high recyclability and durability, often presents a lower overall environmental impact over its lifetime. Discussing these materials' life cycles and recycling efficiencies is crucial for consumers aiming to make environmentally responsible choices.

Consumer Guidance on Choosing Safe and Sustainable Products

Selecting materials that are safe for both personal use and the environment involves navigating a landscape filled with various products and competing claims. For consumers looking to make responsible choices, it is essential to consider not only the immediate safety of the materials but also their long-term sustainability. Certifications and regulatory standards can be useful guides in this process, as they often indicate compliance with safety and environmental criteria. Additionally, opting for products from reputable companies that transparently disclose their manufacturing processes and material sources can further assure consumers of the quality and safety of their purchases.


In summing up, while Tritan plastic presents itself as a BPA- and BPS-free alternative, it is not without its potential issues. The presence of other chemicals that may disrupt hormones and the ongoing research into its safety profile suggest that Tritan might not be the ultimate solution to the plastic dilemma. Given these uncertainties, consumers are well-advised to consider alternatives such as glass or stainless steel, which have established records of safety and sustainability. As the debate over plastic alternatives continues, staying informed through credible research and thoughtful consideration of all available materials remains crucial for making the healthiest and most sustainable choices.

  1. Molonia, Maria Sofia et al. “The p-Phthalates Terephthalic Acid and Dimethyl Terephthalate Used in the Manufacture of PET Induce In Vitro Adipocytes Dysfunction by Altering Adipogenesis and Thermogenesis Mechanisms.” Molecules (Basel, Switzerland) vol. 27,21 7645. 7 Nov. 2022, doi:10.3390/molecules27217645
  2. Goncharova, R I et al. “Mutagenic effects of dimethyl terephthalate on mouse somatic cells in vivo.” Mutation research vol. 204,4 (1988): 703-9. doi:10.1016/0165-1218(88)90076-6

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