{"id":9900,"date":"2026-09-14T15:27:11","date_gmt":"2026-09-14T13:27:11","guid":{"rendered":"https:\/\/www.zeolith-wissen.de\/?p=9900"},"modified":"2026-09-14T15:53:33","modified_gmt":"2026-09-14T13:53:33","slug":"zeolite-releases-aluminum-and-depletes-nutrients","status":"publish","type":"post","link":"https:\/\/www.zeolith-wissen.de\/en\/zeolite-news\/zeolite\/zeolite-releases-aluminum-and-depletes-nutrients","title":{"rendered":"Zeolite Releases Aluminum and Causes Nutrient Depletion: What’s the Truth Behind the Most Persistent Myths About Zeolite?"},"content":{"rendered":"

Does zeolite release aluminum into the body and deplete it of important minerals? Biochemist and human physiologist Prof. Peter Dartsch explains what the research actually shows<\/h2>\n
\n

\u201cZeolite contains aluminum\u2014so doesn’t that mean I’m also ingesting aluminum when I take zeolite?\u201d<\/p>\n

And: \u201cIf zeolite binds harmful substances, then it must also bind vitamins, minerals, and trace elements.\u201d<\/p>\n<\/div>\n

These are the two main concerns that we at ZEOLITH WISSEN hear time and time again.<\/span><\/p>\n

And at first glance, they even sound logical. After all, the volcanic rock clinoptilolite zeolite is an aluminosilicate and is known for its enormous adsorption and ion-exchange capacity.<\/p>\n

So why, of all things, should the aluminum in zeolite stay where it is?<\/span><\/p>\n

And how is a natural mineral supposed to \u201cknow\u201d what it\u2019s allowed to bind in the gut and what it isn\u2019t?<\/p>\n

The answers<\/strong>\u2014namely, right off the bat, that zeolite does indeed \u201cdistinguish\u201d\u2014lie in the physical and chemical properties of the volcanic rock, which, while understood by chemists, physicists, and many medical professionals, are, pardon the expression, generally not understood by the general public. In the following, we therefore aim to shed some light on the matter, based on scientific evidence.<\/p>\n

First of all:<\/strong> Zeolite is not a sponge that indiscriminately absorbs everything it encounters. Its crystalline structure, pore sizes, electrical charge relationships, and varying affinities for ions (which are electrically charged atoms or molecules) determine what can actually be bound or exchanged in the gastrointestinal tract\u2014which is the only site where zeolite is active.<\/p>\n

We spoke with a scientist who not only knows about zeolite from the literature but has also studied various zeolites himself in the laboratory: Prof. Dr. rer. nat. Peter C. Dartsch. The biochemist and human physiologist worked for many years at the University of T\u00fcbingen, where he earned his habilitation in human physiology. Since 2002, he has been running \u201cDartsch Scientific,\u201d a research institute focused on cell biology-based\u2014and thus animal-free\u2014test systems, located on Lake Ammersee in Bavaria.<\/span><\/p>\n

Prof. Dartsch\u2019s work takes us into a world where things can quickly get complicated: cell cultures, free radicals, neutrophils, ion exchange, oxidative stress, chronic inflammation, the inner surface of zeolite\u2014all highly complex topics. So let\u2019s approach this from a different angle and start with a simple question:<\/p>\n

\n

What does zeolite actually do in our bodies?<\/h3>\n

Zeolite does not interfere with metabolism: It only works where it can cover layers of cells that are exposed to external stresses on the body<\/h4>\n

Most substances that we ingest\u2014whether intentionally or unintentionally (such as pollutants like heavy metals, pesticides, and numerous other toxins)\u2014first pass through the stomach into the intestines. After absorption, they enter the bloodstream, are distributed throughout the body, and interfere with biochemical processes. This applies not only to substances from our food and the liquids we drink, but also to dietary supplements and medications\u2014they all actively interfere with our metabolism, with all the known positive and negative consequences.<\/p>\n

With zeolite, the situation is completely different. This alone is why this volcanic rock is so often misunderstood: The type of zeolite used for medical purposes\u2014with the somewhat cumbersome name \u201cclinoptilolite\u201d\u2014acts solely within the gastrointestinal tract after oral ingestion due to its physicochemical properties. Its microporous crystal structure can be simply imagined as a tiny three-dimensional framework with countless cavities and channels. Certain substances can be bound to or exchanged for ions on and within this structure\u2014while others simply cannot.<\/p>\n

In an interview with ZEOLITH WISSEN, Prof. Dartsch succinctly sums up this unique characteristic:<\/p>\n

\u201cIn my view, what\u2019s interesting\u2014and perhaps also misleading\u2014about zeolite is precisely that it doesn\u2019t actually do anything in the body. It\u2019s simply there, coating the innermost layer of intestinal cells, trapping harmful substances, and then being excreted. It doesn\u2019t need to interfere with any metabolic processes and therefore simply cannot place a burden on the human organism<\/em>.\u201d<\/strong><\/p>\n

This statement is highly relevant and explains a great deal. How did Prof. Dartsch come to study zeolite?<\/p>\n

\u201cAt some point, manufacturers became aware of our cell biology test systems and wanted to know whether certain postulated properties of the zeolite mineral could be objectively measured in the lab. Before we began, I, too, had to delve deeply into the literature on zeolite. What subsequently happened in the lab struck me as extremely remarkable,”<\/em><\/strong> said Dartsch.<\/p>\n<\/div>\n

\n

What happens to human cells under stress? Prof. Dartsch investigated zeolite in relation to regeneration, free radicals, and inflammatory processes<\/h3>\n

Cell research sounds abstract. In principle, however, one of its fundamental principles can be explained very simply: Scientists place living cells of various types in a specific situation\u2014for example, under oxidative stress\u2014under precisely defined conditions and then observe what changes occur on and within the cells as a result of administering a substance.<\/p>\n

In his zeolite experiments, Dartsch also investigated cell regeneration. To do this, a defined cell-free area is created within a closed cell layer. The surrounding cells then begin to migrate into this gap and close it again.<\/p>\n

It is, in a sense, a miniature version of what we all experience when we cut our finger: The tissue then automatically begins to close the resulting defect (incidentally, the human body possesses far more natural regeneration and repair mechanisms than most people realize; even the medical field is only now beginning to recognize the potential of regenerative medicine).<\/p>\n

After adding the zeolite under investigation, Dartsch observed a significantly faster closure of this cell-free area in his cell model. The reduction in regeneration time was on the order of about 25 percent.<\/p>\n

Dartsch also tested his zeolite samples in models of oxidative stress and inflammatory processes\u2014both of which are excessive systemic reactions that can attack the body\u2019s own cells, proteins, and even DNA, as well as cause permanent damage to tissues and organs, and have now been identified as contributing factors to numerous chronic diseases such as cardiovascular disease, diabetes, Alzheimer\u2019s, depression, and even cancer.<\/p>\n

In simple terms, oxidative stress can be thought of as a biological storm: Free radicals are produced even under completely normal conditions during cellular energy metabolism in the mitochondria and\u2014in \u201cfair weather,\u201d so to speak\u2014perform important functions. However, problems arise when everything gets out of balance and a persistent storm sets in. Then the body produces more and more reactive molecules than our antioxidant defense systems can neutralize. As a result, cell membranes, proteins, and other cellular components can suffer increasing damage.<\/p>\n

In this context, Dartsch observed something very interesting that is of great significance to medicine: In his laboratory studies, the zeolites he examined demonstrated antioxidant and free-radical-scavenging effects. How so? In his inflammation model, cells were stimulated to produce oxygen radicals. If zeolite was present in the reaction mixture, it was able to scavenge some of these aggressive molecules\u2014in a dose-dependent manner.<\/p>\n

But does this mean that zeolite enters our body after ingestion and goes on the hunt for free radicals there? No\u2014and this distinction is precisely what matters. After all, zeolite remains in the gastrointestinal tract. Dartsch\u2019s cell experiments first demonstrate the physicochemical effects that are possible when zeolite comes into direct contact with a biological reaction system.<\/p>\n

In humans, therefore, the intestine must be considered the site of action. If zeolite binds unwanted substances there and thereby reduces their contact with the intestinal mucosa, this may also influence processes related to oxidative stress and inflammation. Zeolite does not even need to enter the bloodstream to do this\u2014it can act directly at the intestinal barrier and function as described in Dartsch\u2019s series of experiments.<\/p>\n

And then there is another property that has long been of particular interest with regard to zeolite and that illustrates this principle especially clearly: the binding of heavy metals and the light metal aluminum.<\/p>\n<\/div>\n

Clinoptilolite zeolite and the elimination of metals: In the laboratory, Prof. Dartsch investigated not only the binding of lead<\/h2>\n
\"\"
Cultured cells under the microscope: The zeolite particles accumulate on top of the cells without being taken up by them and can bind unwanted molecules there.
\u00a9 Prof. Peter Dartsch\/Dartsch Scientific<\/figcaption><\/figure>\n

Heavy metals such as lead, cadmium, arsenic, mercury, and nickel\u2014as well as the light metal aluminum\u2014are among the environmental pollutants from which we can hardly escape completely today. They can be absorbed through food, water, air, and other sources\u2014and the consequences of human emissions have long since reached even the most remote regions of our planet.<\/p>\n

Incidentally, a study on the Antarctic Peninsula published as recently as July 2026 illustrates just how widespread this pollution has become. Using 16 sediment cores, the scientists reconstructed the mercury cycle over the past 200 years or so. Since the beginning of industrialization, the rate of mercury accumulation in the marine sediments studied there has risen by about 160 percent. And there\u2019s more: Increasing ice melt and erosion are also mobilizing mercury that had been stored in the Antarctic environment for a long time and was thus firmly bound. This terrestrial mercury input, driven by ice melt, has increased by about 550 percent since the Industrial Revolution. Antarctica is thus increasingly becoming a secondary source of mercury that was already present.<\/p>\n

Prof. Peter Dartsch, for his part, has focused his laboratory research on another highly toxic heavy metal: lead. \u201cWe investigated zeolite in relation to water-soluble lead compounds<\/em><\/strong>,\u201d reports Dartsch. “And it became very clear: The zeolite binds the lead. It disappears completely from the water-soluble fraction of the reaction mixture and remains in the sediment of insoluble substances. The reaction mixture can be equated with digestive juices<\/em><\/strong>.\u201d<\/p>\n

But for the scientist, this answered only half the question. This is because zeolite is a natural mineral and\u2014depending heavily on its origin and quality\u2014naturally contains various elements; some zeolites may also contain traces of heavy metals. So what happens to such a substance when the zeolite powder is swallowed and subsequently passes through the stomach into the intestines? Could the aggressive stomach acid leach out a heavy metal that is firmly bound within the mineral?<\/p>\n

That is exactly what Dartsch investigated as well\u2014again using lead as an example. To do this, he used a zeolite in which lead was already naturally present in a firmly bound form and subjected it to a simulated digestive process in his laboratory.<\/p>\n

Simply put, he recreated what happens to the mineral as it passes through our digestive tract\u2014including the highly acidic conditions of the stomach. The result: No lead was released from the zeolite and entered the digestive juices.<\/p>\n

Dartsch explains the crucial difference as follows: \u201cYou have to distinguish between a heavy metal that comes into contact with the zeolite from the outside and is then actively bound by it, and an element that is already a component of the zeolite. I also investigated this with lead. This lead was intrinsic to the zeolite\u2014that is, firmly bound within its structure. And I was able to determine: It is not released. Even when the zeolite is exposed to highly acidic conditions, such as those found in an empty stomach, absolutely nothing happens.<\/em><\/strong>”<\/p>\n

In other words: A zeolite can bind lead that comes into contact with it from the outside\u2014without, however, releasing the lead that is already an integral part of its own mineral structure. It is precisely this distinction that is crucial.<\/p>\n

What Dartsch investigated here using lead leads us directly to the next\u2014and presumably most-discussed\u2014question regarding zeolite: What about the light metal aluminum?<\/p>\n

\n

\u201cZeolite contains aluminum\u2014so aluminum enters my body\u201d: Why this conclusion is incorrect<\/h3>\n

Yes, zeolite does indeed contain aluminum. This is no secret, nor is it a contaminant that manufacturers would need to conceal. After all, chemically speaking, zeolite belongs to the aluminosilicate family. Silicon and aluminum, along with oxygen, are the main components of its crystalline structure. But the key word \u201cstructure\u201d is precisely the crucial point. The aluminum isn\u2019t just lying around loosely in the pores, waiting to be flushed out by gastric juices. It is an integral part of the crystal lattice.<\/p>\n

To put it simply: Anyone who concludes, based solely on the fact that \u201czeolite contains aluminum,\u201d that this aluminum automatically becomes bioavailable is confusing the building blocks of a house with its movable furnishings. A chair can be carried out of a room. A stone in the wall, on the other hand, is an integral part of the structure.<\/p>\n

We do not have to rely solely on theoretical considerations. In a clinical human study published in 2022 in *Frontiers in Medicine*, aluminum levels were examined in people who took the modulated PMA zeolite (PMA stands for \u201cpatented micro-activation\u201d by the research and development company PANACEO), which is certified as a medical device. No increase in aluminum or lead in the blood\u2014which would have suggested a release from the material\u2014was detected one hour after ingestion. Even more relevant, however: even with long-term use over four years (!), aluminum levels in the PMA zeolite group were actually significantly lower. In plain language, this means\u2014at least for PMA zeolite\u2014that: Aluminum present in the zeolite itself remains bound, and aluminum present in the subject\u2019s body is reduced.<\/p>\n

However, the scientific context is also important here: The study used PMA zeolite, a clearly defined, certified clinoptilolite material. Results from a tested material cannot automatically be applied to just any zeolite powder from another source.<\/p>\n<\/div>\n

\n

If zeolite binds substances, why doesn\u2019t it also remove calcium, magnesium, iron, and zinc?<\/h3>\n

This brings us to the second major objection. And this one, too, cannot be dismissed out of hand. Zeolite is an ion exchanger. So why should it be interested exclusively in unwanted substances? Couldn\u2019t regular intake eventually lead to the body lacking important minerals and trace elements?<\/p>\n

Among others, the German physiologist and zeolite researcher Prof. Dr. Dr. Karl Hecht has already addressed this question; his extensive work and books were instrumental in first introducing zeolite to a broader public in German-speaking countries. Hecht had already demonstrated that natural clinoptilolite zeolites themselves contain numerous (Hecht mentioned 34 different) minerals and trace elements and can even release small amounts of certain elements to the human body as part of ion-exchange processes. However, zeolite does not absorb minerals and trace elements already present in the body.<\/p>\n

The key point here is also this: ion exchange does not mean indiscriminate binding. Which ions a zeolite prefers to bind or exchange depends, among other things, on charge, size, hydration shell, concentration, pH value, and affinity for the zeolite framework. The mineral therefore does not function like a vacuum cleaner that indiscriminately sweeps out the contents of the intestine. Rather, the zeolite actually does select which substances to bind.<\/p>\n

So what happens in the human gastrointestinal tract? This is precisely why the aforementioned clinical study from 2022 is of interest. In addition to metal levels, the researchers also analyzed mineral levels in different groups and over various intake periods\u2014ranging from 28 days to twelve weeks to the aforementioned long-term observation spanning four years.<\/p>\n

The results: With short-term use, no clinically relevant changes were observed in the physiological minerals studied\u2014iron, sodium, potassium, calcium, magnesium, and zinc. The 12-week study also showed no loss of minerals.<\/p>\n

There was, however, one exception, and it concerned patients diagnosed with osteoporosis. In this group, a more nuanced picture emerged: Levels of calcium, sodium, and copper were occasionally observed to fall below the reference ranges. The authors, however, attributed these changes to the bone remodeling occurring in these patients, which is generally associated with increased mineral consumption. The scientists therefore recommend monitoring certain mineral levels in osteoporosis patients after prolonged use.<\/p>\n

But this is something entirely different from the generalized claim that zeolite \u201crobs the body of minerals.\u201d The available human data clearly refute the notion of nonspecific mineral depletion\u2014and at the same time demonstrate why reputable science (keyword: osteoporosis) rarely uses the word \u201cnever.\u201d<\/p>\n

What does Prof. Dartsch have to say about this? “I don\u2019t conduct human studies, but rather cell studies. From my own experience, I can\u2019t say much about this because I haven\u2019t conducted any research in this regard. However, when I look at the literature and draw on my knowledge of zeolite, I can\u2019t imagine\u2014based on physical and chemical principles alone\u2014that zeolite, at least high-quality zeolite available as a medical device, would deplete the body of minerals. But that\u2019s what human studies are for<\/em>.<\/strong>”<\/p>\n

What matters, then, is the specific zeolite material, its composition, its purity, its processing\u2014and the data available specifically for that material. Prof. Dartsch offers a practical recommendation accordingly.<\/p>\n<\/div>\n

Not All Zeolites Are Created Equal: Why Prof. Dartsch Explicitly Recommends Tested Medical Devices<\/h3>\n

Anyone searching for zeolite online will find, within minutes, countless powders, capsules, and products in a wide range of price categories. However, clinoptilolite zeolite is a natural substance. But natural substances aren\u2019t automatically pure just because \u201cnatural\u201d is written on the packaging.<\/p>\n

The origin of the raw material, geological deposit, purity, particle characteristics, processing, and quality control can all vary. Therefore, findings regarding a carefully tested clinoptilolite zeolite cannot simply be applied to every product labeled \u201czeolite\u201d (see also: https:\/\/www.zeolith-wissen.de\/en\/zeolite-guide\/buy-zeolite<\/a>).<\/p>\n

Dartsch makes his recommendation quite clear: \u201cIt\u2019s absolutely essential to look beyond the surface and check whether the zeolite product in question is also an approved medical device. Then you have the appropriate quality control. That\u2019s a very important prerequisite. And since most zeolites aren\u2019t certified at all, the selection quickly becomes quite limited.\u201d<\/em><\/strong><\/p>\n

Environmental toxins, oxidative stress, and prevention: Why Prof. Dartsch considers zeolite more important today than ever<\/h3>\n

But why should one take zeolite at all? For Prof. Dartsch, the answer points directly to our current environment. Even with a healthy diet and lifestyle, we can no longer avoid harmful substances\u2014from heavy metals and pesticides to fine particulate matter and numerous other environmental chemicals. That is precisely why the cell biologist also considers prevention \u201cextremely important\u201d today.<\/p>\n

When asked whether zeolite could, in a sense, serve as the foundation\u2014that is, first binding harmful substances before we address the body\u2019s optimal nourishment through a healthy diet, micronutrients, and other measures\u2014Dartsch replies:<\/p>\n

\u201cIn my view, that\u2019s the right approach. Today we\u2019re exposed to all these chemicals, xenobiotics, UV radiation, fine particulate matter, air pollution, and especially Wi-Fi radiation\u2014which people still completely underestimate\u2014and much more. Sometimes you don\u2019t even know where to start or where to stop. Of course, you can\u2019t just say, \u2018I\u2019ll take zeolite and then nothing bad will happen to me.\u2019 But with this mineral, we can do something fundamentally valuable: remove many of these toxins and their resulting undesirable effects from our bodies before they can cause damage throughout the entire organism. It\u2019s also important to note, by the way, that children and adolescents\u2014whose bodies are still growing\u2014are even more sensitive than adults. That\u2019s why I think it makes sense to start taking zeolite as early as possible and help the body get rid of such toxins time and again.\u201d<\/em><\/strong><\/p>\n

This is precisely what makes clinoptilolite zeolite so special: It isn\u2019t meant to add anything to the body, but rather to bind harmful substances and flush them out through the intestines. Or to put it another way: Health isn\u2019t just about giving the body what it needs\u2014it\u2019s also about ridding it of as much of what it doesn\u2019t need as possible.<\/p>\n

Source:<\/span><\/p>\n

\n

Kraljevi\u0107 Paveli\u0107 S. et al. (2022): <\/span><\/p>\n

Clinical Evaluation of a Defined Zeolite-Clinoptilolite Supplementation Effect on Selected Blood Parameters of PatientsFrontiers in Medicine, Vol. 9, 851782.<\/p>\n

DOI: 10.3389\/fmed.2022.851782<\/p>\n

The clinical study, published in 2022, specifically investigated whether taking a defined and certified clinoptilolite zeolite (PMA zeolite) affects mineral balance or can lead to the release of undesirable metals such as aluminum and lead.<\/p>\n

Data from three clinical studies with different duration periods were analyzed: 28 days, 12 weeks, and\u2014in the case of osteoporosis patients\u2014up to four years. The study measured, among other things, iron, sodium, potassium, calcium, magnesium, and zinc, as well as various other metals.<\/p>\n

With short- and medium-term use, the minerals and trace elements examined remained within the reference range; the data thus provide no indication that PMA zeolite nonspecifically \u201cdeprives\u201d the body of important minerals. Similarly, no release of aluminum or lead from the zeolite into the blood was detected following ingestion.<\/p>\n

A four-year study of osteoporosis patients revealed a more nuanced picture: calcium and sodium levels occasionally fell below reference values, and copper levels were also temporarily reduced but later returned to normal. The authors discuss these changes in the context of bone remodeling processes, among other factors, and recommend monitoring calcium, sodium, and copper levels during long-term use for osteoporosis.<\/p>\n<\/div>\n

\n

About Prof. Dr. Peter C. Dartsch \u2013 Cell Biologist and Human Physiologist<\/h3>\n

\"Prof.<\/p>\n

Prof. Dr. rer. nat. habil. Peter C. Dartsch holds a degree in biochemistry and is a habilitated human physiologist. Beginning with his master\u2019s thesis (1985) and continuing with his doctoral dissertation (1989) and habilitation (1991), he focused at the Medical Faculty of the University of T\u00fcbingen on the cultivation of organ-specific primary cells and the development and establishment of cell culture models in the fields of physiology and occupational toxicology. In 1997, he was appointed adjunct professor. Until 2020, he served as an external member of the Medical Faculty of the University of T\u00fcbingen.<\/p>\n

In 2002, Dartsch founded the private research institute \u201cDartsch Scientific,\u201d which specializes in cell biology testing methods that do not involve animal experimentation.<\/p>\n

His work focuses on cell culture models that can be used to investigate, among other things, regenerative processes, oxidative stress, and inflammatory processes. Dartsch has more than 35 years of experience in cell biology and toxicological research and has published approximately 150 scientific papers as well as 30 book chapters.<\/p>\n

Dartsch has also investigated various clinoptilolite zeolites using his cell biology methods. He spoke with ZEOLITH WISSEN about his laboratory results, heavy metal binding, oxidative stress, and the role he believes zeolite can play in prevention today.<\/p>\n

Contact:<\/span><\/p>\n

Dartsch Scientific GmbH
\nInstitute for Cell Biology Test Systems
\nOberer Anger 1
\n86911 Die\u00dfen am Ammersee
\nEmail: info@dartsch-scientific.com<\/a>
\nWeb: https:\/\/www.dartsch-scientific.com<\/a><\/p>\n<\/div>\n","protected":false},"excerpt":{"rendered":"

Lesedauer ca.<\/span> 14<\/span> Minuten<\/span><\/span>Does zeolite release aluminum into the body and deplete it of important minerals? Biochemist and human physiologist Prof. Peter Dartsch explains what the research actually shows \u201cZeolite contains aluminum\u2014so doesn’t that mean I’m also ingesting aluminum when I take zeolite?\u201d And: \u201cIf zeolite binds harmful substances, then it must also bind vitamins, minerals, and trace […]<\/p>\n","protected":false},"author":2,"featured_media":9901,"comment_status":"closed","ping_status":"closed","sticky":false,"template":"","format":"standard","meta":{"footnotes":""},"categories":[83],"tags":[],"class_list":["post-9900","post","type-post","status-publish","format-standard","has-post-thumbnail","category-zeolite"],"_links":{"self":[{"href":"https:\/\/www.zeolith-wissen.de\/en\/wp-json\/wp\/v2\/posts\/9900","targetHints":{"allow":["GET"]}}],"collection":[{"href":"https:\/\/www.zeolith-wissen.de\/en\/wp-json\/wp\/v2\/posts"}],"about":[{"href":"https:\/\/www.zeolith-wissen.de\/en\/wp-json\/wp\/v2\/types\/post"}],"author":[{"embeddable":true,"href":"https:\/\/www.zeolith-wissen.de\/en\/wp-json\/wp\/v2\/users\/2"}],"replies":[{"embeddable":true,"href":"https:\/\/www.zeolith-wissen.de\/en\/wp-json\/wp\/v2\/comments?post=9900"}],"version-history":[{"count":1,"href":"https:\/\/www.zeolith-wissen.de\/en\/wp-json\/wp\/v2\/posts\/9900\/revisions"}],"predecessor-version":[{"id":9902,"href":"https:\/\/www.zeolith-wissen.de\/en\/wp-json\/wp\/v2\/posts\/9900\/revisions\/9902"}],"wp:featuredmedia":[{"embeddable":true,"href":"https:\/\/www.zeolith-wissen.de\/en\/wp-json\/wp\/v2\/media\/9901"}],"wp:attachment":[{"href":"https:\/\/www.zeolith-wissen.de\/en\/wp-json\/wp\/v2\/media?parent=9900"}],"wp:term":[{"taxonomy":"category","embeddable":true,"href":"https:\/\/www.zeolith-wissen.de\/en\/wp-json\/wp\/v2\/categories?post=9900"},{"taxonomy":"post_tag","embeddable":true,"href":"https:\/\/www.zeolith-wissen.de\/en\/wp-json\/wp\/v2\/tags?post=9900"}],"curies":[{"name":"wp","href":"https:\/\/api.w.org\/{rel}","templated":true}]}}