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Showing posts sorted by date for query SPAGYRIC HERBALISM. Sort by relevance Show all posts

Wednesday, April 08, 2026

SPAGYRIC HERBALISM

Turmeric/ginger extract shows multiple benefits for bone implants






Washington State University




PULLMAN, Wash. – An extract of turmeric and ginger helps bone implants bond strongly while killing bacteria and cancer cells, according to new research from Washington State University with implications for millions of patients with joint replacements and bone cancer.

In early tests, the extract roughly doubled bone bonding within six weeks around the implant site, killed more than 90% of bacteria on implant surfaces, and sharply reduced cancer-causing cells. The findings marry elements of a naturopathic approach drawing on traditional medicine with current medical technologies. Turmeric, a golden-orange spice, and ginger root have been used for food and medicinal purposes in China and India for thousands of years.

“Basically, I say it’s combining the best with the latest,” said Susmita Bose, the Westinghouse Distinguished Chair Professor in WSU’s School of Mechanical and Materials Engineering and corresponding author of the paper. “The best part is from the food, and the latest aspect comes from the biomedical device.”

The new study, published in the Journal of American Ceramic Society, is the most recent work from Bose and Amit Bandyopadhyay, Boeing Distinguished Professor in the School of Mechanical and Materials Engineering, demonstrating that compounds from turmeric and ginger can be effective supplements to cutting-edge medical treatment. That work builds upon their earlier research into the use of 3-D printing to produce bone implants, an idea once considered far-fetched that is now a common way to manufacture implants.

In the current study, the researchers targeted a range of medical and health problems associated with bone implants. At a time when roughly 7 million Americans are living with metal hip and knee replacements, a significant portion of the implants must be repaired after they fail to bond strongly with the existing bone or weaken over time. There are also serious problems arising from infections on the metal surfaces of the implants themselves — something that occurs in nearly a third of failed implant cases and is very difficult to treat.

“Often, an infection will require the removal of the implant,” Bose said. “There is no other way of fixing bone in patient's body. So, infection-related problems can cause really a huge health issues and financial burden.”

The extract also was tested for its effects on cells that cause osteosarcoma, a form of bone cancer that is the most prevalent malignancy among pediatric patients and young people. Even following treatment regimens including surgery, chemotherapy and bone implants, some cancer-causing cells remain present.  

The research team tested whether an extract of ginger and curcumin, the active agent in turmeric, could be applied with a coating of a titanium implant that would slowly release over time. The extract was tested in vitro and in an experiment on a femur implant in rats.

The extract helped foster a strong bond between the titanium implant and the bone, roughly doubling bone-bonding effects six weeks after surgery. It also killed 92% of bacteria on the surface of the implant and reduced cancer-causing cells around the site by 11-fold compared to untreated controls.

“There are many, many facets of this challenge,” Bandyopadhyay said. “We are making an implant that will offer some infection resistance. We are making an implant that can help with bone bonding. This paper is focused on very big problems, and we’re telling the world a lot of little things you can do that may add significant benefit to the patient's life, whether it's a hip implant, knee implant, spinal implant, or shoulder implant. That's really the holy grail of it.”

Also contributing to the paper were first author Arjak Bhattacharjee, a PhD graduate from WSU who is now an assistant professor at New Mexico Tech; Ujjayan Majumdar, also a WSU PhD graduate; and William Dernell, an emeritus professor of veterinary medicine at WSU.

Bose noted that the effectiveness of ginger and turmeric in reducing infection and cancer-causing cells are just some of the health benefits that the compounds offer. When incorporated into the diet, turmeric and ginger have been shown to have anti-inflammatory and antioxidant properties, among other benefits.

“I'm very passionate about these natural medicinal compounds, because I feel that they can be used so easily as preventative care in our everyday life,” Bose said. “Curcumin, from turmeric, has very good anti-inflammatory effect – and inflammatory bone loss is a big challenge. And ginger may have an anti-cancer effect. We can use these compounds as preventative care.”

Monday, March 02, 2026

SPAGYRIC HERBALISM

Modern science catches up with native knowledge with discovery of Clerodendrum kelli





Ateneo de Manila University

Clerodendrum kelli, endemic to Nueva Ecija, Philippines 

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Clerodendrum kelli—a newly described, Critically Endangered species found only in Nueva Ecija, Philippines— shown in photographs highlighting its overall habit (a), distinctive leaves (b), and flowers with immature fruits (c-d). 

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Credit: Tobias et al., 2025





The indigenous Bugkalot people of Nueva Ecija call it “kelli”: a plant with white, starburst-like flowers and oval-shaped leaves that are traditionally mashed and mixed with food to treat ailing dogs. But despite this local familiarity, science has only now been able to identify it as a distinct species and given it a formal scientific name.

Clerodendrum kelli is a small shrub that grows in the humid montane rainforests of the Caraballo Mountain Range, specifically in two localities—Mt. Meddengen and Sitio Binbin. Nestled within the Pantabangan-Carrangalan Watershed Forest Reserve (PCWFR), this rare species is a subtle presence in the landscape, never appearing abundant nor easily encountered.

Reaching about a meter in height, the plant stands out with its green leaves accented by pale purple undersides. Its white, tube-shaped flowers bloom from reddish-pink bases and are arranged in loose, open clusters, unlike the dense groupings of some Clerodendrum species. 

The documented medicinal use of the plant reflects the Bugkalot’s deep understanding of the species and its habitat. Importantly, there is no indication that their traditional use has led to the plant’s scarcity. Rather, habitat loss from land conversion and natural landslides poses the greatest known threat to its survival.

Despite formal protection, this ongoing habitat degradation has reduced C. kelli’s range. This shrinkage is especially severe along the steep ridges where the species grows. As forest clearing and slope failures continue, C. kelli is now assessed as Critically Endangered and is known to exist in a total area of just 8 square kilometers. Researchers warn that, without stronger protection, the species could vanish.

The underscores how the discovery of C. kelli is more than a scientific milestone; it highlights how Indigenous knowledge and science can overlap—bridging traditional and formal understanding of biodiversity. 

David Justin R. Ples, John Patykowski, Leonardo C. Udasco, John Charles A. Altomonte, Adriane B. Tobias, and Rene Alfred Anton Bustamante published their study, Clerodendrum kelli (Lamiaceae), a new species from Carranglan, Nueva Ecija, Philippines, and lectotypification of Clerodendrum mindorense in December 2025 in the Gardens’ Bulletin Singapore. 

Friday, February 06, 2026

SPAGYRIC HERBALISM

A mint idea becomes a game changer for medical devices





Flinders University
Professor Krasimir Vasilev, Flinders University 

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Professor Krasimir Vasilev, Matthew Flinders Professor and Professor of Biomedical Nanotechnology and Director of Biomedical Nanoengineering Laboratory, College of Medicine and Public Health, Flinders University

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Credit: Flinders University




Australian researchers have developed a high‑performance coating made from peppermint essential oil that can be applied to the surfaces of many commonly used medical devices, offering a safer way to protect patients from infection and inflammation.

Matthew Flinders Professor and senior author of the new study, Professor Krasimir Vasilev, says the idea emerged after noticing that eating peppermint leaves from his drink significantly relieved his sore throat, inspiring him to explore whether its bioactivity could be converted into a durable coating using plasma technology – something he has been researching for more than two decades.

The team from Flinders’s Biomedical Nanoengineering Laboratory - including Professor Vasilev (Director), Associate Professor Vi‑Khanh Truong, Dr Andrew Hayles, and PhD candidates Trong Quan Luu and Tuyet Pham - created a nanoscale peppermint‑oil coating that protects against infection, inflammation and oxidative stress, while remaining compatible with human tissue and suitable for medical materials.

In the study, the team used atmospheric pressure plasma to transform peppermint essential oil into an ultra-thin film that bonds tightly to the surface of all types of medical materials.

“This process does not require heating or harmful chemicals and preserves many of the biologically active groups within the oil,” says Professor Vasilev.

“Importantly, it is environmentally friendly since the energy required to run the process can be entirely sourced from renewable sources.

“It allows the fabrication of robust and stable coatings because the plasma reorganises the oil molecules into a cross linked structure that resists breakdown.”

Researchers first tested the coating on urinary catheters - devices frequently associated with infection and patient discomfort.

Co-author, Associate Professor Vi‑Khanh Truong says the peppermint coating removed up to 90% of harmful reactive oxygen species, limiting tissue damage and irritation.

“Catheter associated urinary tract infections are among the most common hospital acquired infections and significantly contribute to patient discomfort, extended hospital stays, greater treatment costs and increased mortality,” says Associate Professor Truong from the College of Medicine and Public Health.

“The plasma coating demonstrated strong antibacterial action against key pathogens such as E. coli and Pseudomonas aeruginosa, killing bacteria on contact without releasing drugs into the body.”

The study also found that the peppermint oil coating increased bacterial sensitivity to common antibiotics including colistin and levofloxacin, a finding that could help reduce antibiotic resistance.

“We found that the coating reduces pro inflammatory signals and increases anti-inflammatory signals, shifting immune cells toward a healing associated phenotype rather than an aggressive one,” says Dr Andrew Hayles.

“This response may help the body tolerate the presence of medical devices more comfortably.”

Laboratory testing confirmed that human cells grow normally on the coating and maintain healthy metabolic activity which proves that the peppermint based film is safe for contact with human tissue.

Beyond catheters, the coating can be applied to many kinds of medical devices, including those used in orthopaedic surgery and long term clinical care.

“The process also supports environmentally conscious manufacturing because it uses renewable peppermint oil and avoids solvent based methods. It can also be powered entirely by renewable sources,” says Professor Vasilev.

“The co-location of the Biomedical Nanoengineering Laboratory within Flinders Medical Centre facilitates close collaboration with doctors and nurses, ensuring that our research remains clinically relevant and strongly positioned for translation.”

The team hopes the discovery will inspire a new generation of medical coatings that harness natural compounds while improving patient comfort and reducing infection risks. They say they are keen to support further development of the technology and are actively seeking engagement with partners to help commercialise their discoveries.

Images available here

Acknowledgements: This research at Flinders University was conducted with experts from RMIT University (Melbourne, Australia).  Professor Vasilev is funded by a NHMRC Fellowship GNT1194466 and ARC grants DP220103543 and DP250101028. V.K.T thanks ARC for the grant FT240100067. A.H. thanks the Flinders Foundation for Health Seed Grant.

The article, ‘A Multifunctional Bioactive Nanoscale Coating Deposited by Atmospheric Pressure Plasma Polymerization of Peppermint Essential Oil,’ by Trong Quan Luu, Xuan Duy Do, Tuyet Pham, Ngoc Huu Nguyen, Richard Bright, Wenshao Li, Xiangyang Guo (RMIT University,Melbourne), Vi Khanh Truong  , Andrew Hayles and Krasimir Vasilev was published in Small journal. DOI: 10.1002/smll.202510552\\