D2W Plastics Oxy-Biodegradable Plastics Recycling Plastics

The Challenges of Industrial Composting and Why It Doesn’t Always Work

In our ever-growing quest for sustainable solutions to manage waste and reduce our carbon footprint, industrial composting has been hailed as a game-changer. The idea is as simple as it is appealing: transform organic waste into nutrient-rich soil that can be used to fertilize crops and gardens, closing the loop in a circular economy. However, despite its potential and the widespread enthusiasm, industrial composting faces significant challenges that sometimes render the process inefficient or even unworkable. This article seeks to delve deeper into these challenges and explore why industrial composting doesn’t always work as intended.

Understanding Industrial Composting

Before we dive into the issues, let’s first establish a clear understanding of what industrial composting is. Essentially, it’s a controlled process of organic waste breakdown on a large scale. Through the action of microorganisms, organic materials such as food scraps, yard waste, and certain types of biodegradable waste are transformed into compost, a soil-like material rich in nutrients. This process, when done correctly, can significantly reduce the volume of waste going to landfills and produce valuable products for agriculture and gardening.


Despite its promise, industrial composting faces multiple challenges that are often complex and intertwined. Here are some of the most pressing:

1. Contamination

One of the most significant challenges in industrial composting is contamination. This primarily happens when non-compostable materials, such as plastics, glass, and metals, are mixed with compostable waste. These contaminants can be difficult to sort out and can degrade the quality of the resulting compost. Worse, if plastics break down into microplastics, they can end up in the soil and waterways, causing environmental harm.

2. Inconsistent Feedstock

The quality and characteristics of the organic waste used in composting, also known as the feedstock, can vary widely. This inconsistency can affect the composting process and the quality of the final product. For instance, a high amount of woody waste can slow down the composting process, while an overabundance of nitrogen-rich food waste can lead to odor issues.

3. Lack of Public Awareness and Participation

A successful industrial composting system requires active participation from the public. However, lack of awareness about what can and cannot be composted often leads to contamination. Furthermore, not all communities have access to industrial composting facilities, and many lack curbside collection programs for compostable waste, limiting the scope of these initiatives.

4. Regulatory Hurdles

The regulatory landscape for industrial composting varies from place to place and is often complex. Some regulations can inadvertently make it difficult to establish new composting facilities, while others may not adequately address issues such as odor control or environmental protections.

5. Economic Viability

Lastly, the economic viability of industrial composting is a significant challenge. The process requires substantial investments in infrastructure, equipment, and labor. Furthermore, the market for compost products is often uncertain, and composting facilities have to compete with synthetic fertilizers that are sometimes cheaper and more convenient to use.

Why Composting Doesn’t Always Work

Given these challenges, it’s clear that industrial composting doesn’t always deliver on its promises. Contamination can lead to low-quality compost or environmental harm, inconsistent feedstock can result in inefficient operations, and lack of public participation can limit the amount of waste that’s diverted from landfills. Regulatory hurdles can prevent the establishment of new facilities, while economic challenges can make it hard for existing ones to stay afloat.

Plastic Composting and the Role of Plastic IQ Technology

Plastic IQ technology has emerged as a potential game-changer in the realm of plastic waste management. Specifically, using bio-transformative plastics significantly shifts how we approach plastic waste. Bio-transformative plastics are designed to degrade in the presence of oxygen, light, and heat over a period of time, eventually breaking down into biodegradable components. This technology promises recyclability and compostability, which could revolutionize plastic waste management if widely adopted.

The ability to compost plastic waste is an attractive proposition. Currently, most plastic is in landfills or pollutes our oceans and landscapes because it does not break down naturally. Bio-transformative plastics, however, promise to change this narrative by transforming plastic waste into a material that can be composted industrially. This means that plastic waste could potentially be diverted from landfills and turned into a resource, contributing to the circular economy.

However, introducing these new types of plastics has been met with resistance from some stakeholders, particularly those invested heavily in traditional composting processes. The primary reason lies in the economic dynamics of the composting industry.

The composting industry, like many others, is driven by economics. Traditional compost, derived from organic waste like food scraps and yard waste, has a well-established market. It’s used extensively in agriculture and gardening, and composting facilities have a financial incentive to produce as much of it as possible. Introducing a new input—especially one as controversial and complex as plastic—poses significant risks and uncertainties.

Firstly, composting bio-transformative plastics requires precise control over conditions to ensure complete degradation, which can be more complex and costly than composting organic waste. Furthermore, there is uncertainty about whether compost that includes degraded plastic will be as marketable as traditional compost. If customers are wary of plastic-derived compost, it could hurt the bottom line of composting facilities.

Additionally, there’s an inherent conflict of interest. Composting facilities make money by processing organic waste, and they depend on a steady stream of this waste to stay profitable. Biodegradable or bio-transformative solutions like Plastic IQ threaten to disrupt this stream by reducing the amount of organic waste that needs composting. If plastic waste can be composted or biotransformed into other products, it could compete with traditional composting processes, impacting economic viability.

Thus, while Plastic IQ technology and similar innovations promise more sustainable plastic waste management, their adoption faces significant hurdles. Not only do they need to overcome technical and regulatory challenges, but they also have to navigate the complex economic dynamics of the waste management industry. Until these challenges are addressed, it’s likely that some stakeholders will remain resistant to these new solutions.

D2W Plastics News Oxy-Biodegradable Plastics

Bio-Plastic: A Sustainable Revolution in the Supplement Industry

Bio-plastic, an innovative product of modern scientific research, marks a significant shift towards sustainable material usage. Bio-plastics consist of renewable raw materials like corn, sugarcane, and cellulose. Their unique bio-transformative property offers a viable alternative to traditional petroleum-based plastics. Which notoriously harm the environment due to their long degradation process.

This article will explore bio-plastic essence, potential benefits, and anticipated transformative impact on the supplement industry.

What is Bio-Plastic?

Bio-plastic represents a broad range of materials primarily derived from biomass sources such as plants. Researchers design these innovative materials to mimic the properties of traditional plastics but with a crucial difference. They can undergo bio-transformation under specific environmental conditions. This characteristic separates bio-plastics from their conventional counterparts, offering a sustainable solution to the rampant plastic waste problem.

These novel materials vary considerably in their properties and applications. Some bio-plastics, such as Polylactic Acid (PLA), serve as an excellent materials for packaging, replacing petroleum-based materials like polyethylene terephthalate (PET). Other bio-plastics, including Polyhydroxyalkanoates (PHA), find extensive usage in agriculture and the medical industry due to their bio-transformative and biocompatible characteristics.

Potential Benefits of Bio-Plastic

Bio-plastics come with a plethora of benefits, especially when it comes to environmental sustainability. They significantly reduce reliance on fossil fuel resources for plastic production, driving down carbon emissions. They also offer a practical solution to the issue of plastic waste, given their capacity for bio-transformation.

Using bio-plastics contributes to a circular economy, where the end of one product’s life cycle can initiate another’s. In this model, waste doesn’t merely disappear; it transforms and reintegrates into the ecosystem, promoting resource efficiency and minimizing environmental impact.

Moreover, bio-plastic production often promotes rural development and job creation, as many raw materials, such as corn and sugarcane, come from agricultural sources. This economic benefit is another crucial aspect of bio-plastic potential.

Impacts on the Supplement Industry

The supplement industry, a rapidly growing sector in health and wellness, stands to gain significantly from bio-plastic. The industry, like many others, traditionally relies on petroleum-based plastic for packaging its various products, from vitamins to protein powders. However, the adoption of bio-plastic offers not only an eco-friendly alternative but also an opportunity to rebrand and align with the increasing consumer demand for sustainability.

Bio-plastic packaging in the supplement industry can ensure product safety and quality while reducing environmental footprint. For instance, using PLA for supplement packaging can maintain the product’s freshness while ensuring the packaging material can undergo bio-transformation post-use.

Furthermore, the use of bio-plastic can help supplement companies differentiate themselves in a crowded market, appealing to the growing segment of eco-conscious consumers. This commitment to sustainability could potentially increase brand loyalty and customer retention, benefiting businesses.

Plastic IQ Technology refers to your brand’s oxo-biodegradable plastic, which incorporates additives that induce the plastic to degrade after exposure to oxygen, heat, and light. This process involves breaking the plastic into small fragments and then further degrading it into water, carbon dioxide, and biomass under suitable environmental conditions.

On the other hand, traditional bio-plastics are made from renewable sources like corn, sugarcane, and cellulose, and they can undergo bio-transformation in specific environments. However, their degradation can sometimes be challenging, as certain bio-plastics require industrial composting facilities to break down effectively. In contrast, Plastic IQ Technology is designed to degrade in a broader range of environments, offering a more flexible solution.

Why Plastic IQ™  Technology Is Superior

The superior advantage of Plastic IQ Technology, as used in Biobottles™, lies in its versatility and efficiency. Here are a few key reasons:

  1. Broad Environment Degradability: Biobottles™  with Plastic IQ™  Technology can degrade in various environments, not solely in industrial composting facilities, as some bio-plastics require. This flexibility makes Plastic IQ™  a more adaptable and effective solution in various scenarios.
  2. Controlled Lifespan: With Plastic IQ™  Technology, you can control the lifespan of Biobottles™  based on the additive mixture used during production. This allows for a more precise and customizable approach to plastic degradation, which is not typically possible with traditional bio-plastics.
  3. Recyclable: Unlike some bio-plastics, Biobottles™  made with Plastic IQ™  Technology can be recycled with conventional plastic waste. This compatibility with existing recycling systems further reduces environmental impact.
  4. Cost-Effective: The production of bio-plastics can often be more expensive due to the cost of renewable resources and the production process. In contrast, Plastic IQ™  Technology offers a cost-effective alternative, making it a financially viable option for widespread use.

Advantages of Biobottles™ 

Biobottles™ , produced using Plastic IQ™  Technology, offer several significant advantages:

  1. Environmental Sustainability: Biobottles™  can degrade into non-toxic substances, reducing plastic waste and the associated environmental impact.
  2. Customizability: The degradability timeframe of Biobottles™  can be adjusted to suit specific needs, offering an adaptable solution.
  3. Recyclability: Biobottles fit seamlessly into existing recycling streams, promoting circular economy principles.
  4. Versatility: They can be used in various industries, including the supplement industry, for packaging products, offering a sustainable alternative to traditional plastic bottles.

While both Plastic IQ™  Technology and bio-plastics aim to mitigate the environmental impact of plastic waste, Plastic IQ™  Technology, as used in Biobottles™, offers a more versatile, efficient, and adaptable solution, a superior choice for eco-conscious businesses and consumers.


Supplement companies can leverage the bio-plastic revolution to foster innovation. For example, developing edible or dissolvable bio-plastic capsules can revolutionize how consumers take dietary supplements. Such advancements could reduce packaging waste and enhance the user experience, creating a win-win situation for both the environment and consumers.

In conclusion, bio-plastic presents a groundbreaking opportunity for a more sustainable future, particularly in sectors like the supplement industry. Embracing bio-plastic makes environmental sense and aligns with an evolving business landscape where sustainability, innovation, and consumer preferences increasingly dictate success. As the world grapples with environmental challenges, adopting solutions such as bio-plastics becomes ever more critical. Through the adoption of bio-plastic, the supplement industry has a golden opportunity to contribute positively towards this global change. By making the switch, this industry can embody the much-needed shift towards sustainable practices, showing that profitability and environmental responsibility can indeed go hand-in-hand. Through such measures, the supplement industry can play a pivotal role in creating a sustainable, eco-friendly, and health-conscious future.


Plastic IQ™ Technology

The Timeline and Life Cycle of Plastic IQ™ Technology

Plastic pollution is a pressing environmental issue, and innovative solutions are needed to mitigate its impact. One such solution is Plastic IQ™ Technology, which enhances the bio-transformation of plastics by incorporating special additives. In this article, we will explore the timeline and life cycle of plastics made using Plastic IQ™ Technology, from manufacturing to consumer use, and its eventual fate in the environment, including oceans and landfills. We will also discuss the safety aspects of these plastics and their ability to leave no microplastics behind.

PP Plastic & HDPE Biodegradable


The manufacturing process of plastics using Plastic IQ™ Technology involves the addition of a proprietary blend of additives to conventional plastic materials. These additives, when combined with the plastic, promote the oxidative degradation of the polymer chains, which enables their bio-transformation in the presence of microorganisms. The additives do not affect the physical properties of the plastic, ensuring that products made using Plastic IQ™ Technology maintain their functionality and appearance during consumer use.

Consumer Use

Plastic IQ™ Technology is designed to provide a sustainable alternative to conventional plastics without compromising the products’ durability, strength, and longevity during their intended use. The additives used in manufacturing do not weaken the plastic, ensuring that the products made with Plastic IQ™ Technology maintain their integrity, appearance, and functionality throughout their life cycle.

In fact, plastic products made using Plastic IQ™ Technology exhibit similar mechanical properties, such as tensile strength, flexibility, and impact resistance, to those of conventional plastics. This means that the items made with Plastic IQ™ Technology are not feeble, disposable, or inferior in any way compared to their traditional counterparts. They are perfectly suited for a wide range of applications, including packaging materials, disposable cutlery, and agricultural films, providing the same level of performance as conventional plastics.

Furthermore, the bio-transformation process of Plastic IQ™ Technology plastics only begins when the products are exposed to specific environmental conditions, such as heat, light, and the presence of microorganisms, which typically occur after the products have been discarded. Until then, consumers can rest assured that the products made with Plastic IQ™ Technology will retain their durability and functionality, both on the shelf and in their homes.

Plastic IQ™ Technology offers a reliable and sustainable solution that does not compromise the quality and performance of plastic products. With the same level of durability and longevity as conventional plastics, consumers can confidently use products made with Plastic IQ™ Technology, knowing that they are making an environmentally responsible choice without sacrificing performance or convenience.

Plastic products made with Plastic IQ™ Technology serve a wide range of applications, including packaging, disposable cutlery, and agricultural films. Consumers can enjoy the convenience and utility of these products, knowing that they are designed to undergo bio-transformation at the end of their life cycle.

Environmental Fate: Oceans and Landfills

When plastic products made with Plastic IQ™ Technology end up in the environment, such as oceans or landfills, the additives promote the oxidative degradation of the polymer chains, breaking them down into smaller fragments. These smaller fragments are more susceptible to bio-transformation by naturally occurring microorganisms, which convert them into biomass, water, and carbon dioxide.

The time it takes for plastics made with Plastic IQ™ Technology to undergo bio-transformation depends on various factors, including environmental conditions and the presence of microorganisms. In general, the bio-transformation process can take several months to a few years. This is significantly shorter than the time it takes for conventional plastics to decompose, which can be hundreds of years or more.

When comparing the bio-transformation time of Plastic IQ™ Technology plastics to the decomposition of other natural materials, it is important to consider the wide range of decomposition rates that exist in nature. For example, a whale carcass can take up to 20 years to decompose, tree limbs can take several years, and leaves can take up to two years. Given these comparisons, the bio-transformation time of plastics made with Plastic IQ™ Technology is in line with the decomposition rates of many natural materials.

Safety and Microplastic-Free

Plastics made with Plastic IQ™ Technology are designed to be safe for both consumers and the environment. The additives used in the manufacturing process have been thoroughly tested and are found to be non-toxic. Furthermore, the bio-transformation process ensures that no microplastics are left behind in the environment, as the smaller fragments are completely consumed by microorganisms, leaving no residual plastic materials.

In conclusion, Plastic IQ™ Technology offers a promising solution to the global plastic pollution problem by enhancing the bio-transformation of plastic products. With their reduced environmental impact, safe composition, and microplastic-free bio-transformation process, these plastics represent a significant step forward in sustainable materials development.