588 karma · joined April 24, 2023
*1. Limited Degradation Conditions* - Most biodegradable plastics only break down under specific conditions, such as high temperatures found in industrial composting facilities, which are not widely available[3][4][6]. - In landfills or the natural environment, they may persist for years and even release methane, a potent greenhouse gas[4].
*2. Contamination of Recycling Streams* - Biodegradable plastics can contaminate conventional plastic recycling, reducing the quality and durability of recycled products[1][7]. - They require separate collection and processing, adding complexity and cost to waste management[5][7].
*3. Microplastics and Environmental Harm* - Some types, especially oxo-degradable plastics, fragment into microplastics, which pollute ecosystems and can enter the food chain[1].
*4. Toxicity and Chemical Concerns* - Biodegradable and bioplastics often contain thousands of chemicals, some of which are toxic and comparable to those in traditional plastics[2][8]. - Cellulose and starch-based bioplastics have shown strong toxicity in laboratory studies[2].
*5. High Production Costs and Resource Use* - Production is generally more expensive than conventional plastics and may require significant agricultural resources, potentially competing with food production and increasing carbon emissions[3][2][7].
*6. Durability and Usability Issues* - Biodegradable plastics may not be as durable, limiting their application in some products[5]. - Some products have faced consumer complaints about performance, such as packaging noise or fragility[3].
*7. Greenwashing and Misleading Claims* - Marketing often exaggerates environmental benefits, leading to consumer confusion and a false sense of sustainability[1][6].
*8. Infrastructure and Collection Challenges* - Lack of proper infrastructure means many biodegradable plastics end up in landfills or are incinerated rather than composted[4][7].
In summary, biodegradable plastics face significant challenges regarding waste management, environmental impact, toxicity, and practicality, making them far from a perfect solution to plastic pollution[1][2][3].
Quellen [1] Biodegradable Plastic Problems | BioPak Australia https://www.biopak.com/au/resources/biodegradable-plastic-pr... [2] The False Promise Of Bioplastics and Compostable Plastics https://www.beyondplastics.org/fact-sheets/bad-news-about-bi... [3] Is Biodegradable Plastic Good for the Environment? Exploring its ... https://www.global.dnp/biz/column/detail/20173971_4117.html [4] Why Bioplastics Will Not Solve the World's Plastics Problem https://e360.yale.edu/features/why-bioplastics-will-not-solv... [5] Concept to Compost: Challenges of Biodegradable Plastics R&D https://grantica.io/challenges-of-biodegradable-plastics-res... [6] The Problem with Bioplastics - The Great Bubble Barrier® https://thegreatbubblebarrier.com/the-problem-with-bioplasti... [7] The problem with bio-plastic - Plastic Free Communities https://plasticfree.org.uk/2024/01/31/the-problem-with-bio-p... [8] Biodegradable plastics may bring degradation and toxicity ... https://foodpackagingforum.org/news/biodegradable-plastics-m...
If I ever change my email provider I just have to change the catch all rule.
https://quantifiedself.com/wp-content/uploads/2019/04/585958...
1. If # is in the first column of the line.
2. If # is followed by a space.
3. The # only starts a comment when it’s outside of quotes.
It’s a long time since I have to work with websites. JQuery was the hot stuff back then. But we didn’t used it. It was all HTML and a Java backend. This sentence implies that right now basic stuff isn’t managed by the browser (but by React, Vue and so on?) which seems to be simply wrong.
Use plain HTML wherever possible for long term functional web pages!
Renewable energy, on the other hand, is (for now, the transition time) complex. It requires a better, smarter, and much larger interconnected grid, as well as intelligent management of supply, demand, and storage. It means considering and understanding multiple aspects at once. This complexity often leads people who are convinced that more simple power is the answer to dismiss the idea of renewables too quickly—because nuclear seems so much simpler.
I understand the appeal of simple energy. The sad part is that many people likely believe this is the scientifically correct position. And they are often so convinced that, even when presented with current studies and reasonable arguments against new nuclear plants, they quickly assume that the other person is just an irrational, biased anti-nuclear activist. After all, the simplest solution must also be the right one, right?
Being informed in this context doesn’t just mean knowing the pros and cons of nuclear, wind, or solar power. It requires a deep understanding of what is technically and financially feasible today—including energy forms, grid transformation, storage solutions (not just lithium-ion batteries), follow-up costs, sustainability (mining, waste disposal), as well as political, economic, military, and social implications. And how all of these factors interact.
But none of that is necessary if you just want to build more simple power plants.
The transition to 100% renewable energy is as complex as the development of the internet. If we were still relying on letters, telephones, fax machines, newspapers, radio, and TV, the idea of transitioning to a globally available, instant multimedia internet would have seemed just as utopian and impossible.
However, the point of the study is different, and that makes it still relevant today: The barrier to expanding energy storage isn’t a technical one—it’s a political one. The study also shows that there is a great deal of variability, and the often-used argument that there’s not enough lithium or rare earth elements doesn’t hold up. More recent studies validate different storage technologies depending on their specific use case, showing that they can complement batteries in a meaningful way—also from a financial perspective.
Another perspective is that we still have a long way to go before full electrification. Right now, batteries are used in suitable scenarios, but many other areas haven’t been electrified or optimized at all. Other storage technologies might still become relevant. Building a house around a 20,000-liter tank to store energy for heating in Alaska over six months might already be financially and technically viable. But whether the logistical challenges of such solutions will ever make them truly feasible—that’s something I neither want nor can predict.
But one misconception I often read is that everyone focuses on batteries. It would make more sense in general to talk about energy storage instead of just batteries. Like Kinetic, chemical, thermal and so on.
Batteries cannot be solely responsible for back-up. You need different types of storage: short term, medium term and long term storage.
There are different concepts for each application. Batteries, compressed air storage, pumped storage, kinetic, thermal storage as well as power-to-X systems are able to absorb the increasing summer power and provide the energy again in the medium term or seasonally shifted.
In the same time they overestimate Nuclear Energy and carbon capture by any metric (debatable). It’s getting so bad that there are numerous studies about that problem.
https://www.carbonbrief.org/guest-post-why-solar-keeps-being...
https://www.pv-magazine.com/2021/03/31/solar-still-largely-u...
https://www.theenergymix.com/leading-climate-models-underest...
https://climatenexus.org/climate-change-news/iea-historicall...
Or did I miss something?
Besides https://otterwiki.com/, Renato seems to be a suitable option.
Or, very controversially thought, wouldn't GitHub have to offer such a thing?
In a sense, you could say they’ve been conditioned for decades to adopt predefined text. And since this approach has worked so often, perhaps they’ve lost the habit of double-checking everything that a piece of software suggests to them.
No. It’s the other way around. Free will is the basic for „creating something new“.
> Btw, I don't think determinism in humans/AI has anything to do with deliberation.
With determinism there is no deliberation.