Bacteria had to evolve resistance. If not, due to their crucial role in the ecological functioning of this planet (and our own bodies), all life, including the human species, would already have been killed off by those very same antibiotics. [...] As fewer and fewer wild animal populations are available as hosts for the bacterial diseases that once were (mostly) limited to those populations, the bacteria have no choice; they have to jump species – they have to find new hosts. [...] many of the bacteria are now learning to live in human beings
[...] various bacteria are teaching each other how to resist antibiotics and how to more easily infect people... [...] They do this, usually, through sharing segments of DNA that have within them resistance and virulence information. {when a new bacteria enters the body, the old ones, already inside, teach the newbies all their neat evading tricks!}
While antibiotics do still have a role, sometimes a very important one, they can no longer be relied on to provide the sole response to these kinds of diseases. We have to approach treatment with a more sophisticated eye. There are two important aspects to this. The first is realizing that single-treatment approaches, most of which were developed out of an inaccurate 19th and early 20th century bacterial paradigm and are based on identifying the bacterial pathogen involved and killing it, i.e., monotherapy, are going to have to be abandoned as the primary method of treating these kinds of diseases. The second is coming to understand just what the bacteria do in the body and then designing a treatment protocol that is specific in counteracting what the organisms do – exactly.
One of the better articles on this [coinfection dynamics] is "Transmission consequences of coinfection: Cytokines writ large" by Andrea Graham et al. (2007). The author propose a unique approach to understanding the dynamics of coinfections. Instead of focusing on the organisms themselves, they suggest focusing on the cytokine cascades that the organisms produce in the body [cytokine signatures]. [...] Each type of infectious bacteria initiates a particular kind of cytokine cascade... [...] It is these cytokines, in fact, that create most of the symptoms that people experience when they are ill. [...] Bartonella species, like many infectious bacteria, utilize the immune system of whatever mammal they infect as part of their infection strategy. They essentially use our own body's response to them to promote their agenda. [...] In other word, the bacteria use the inflammatory process already occurring in the body (e.g. if you have preexisting arthritis) to facilitate successful infection.
This is a crucial point. The impact of multiple coinfectious organisms is NOT additive. They are synergistic. They create effects that are more than the sum of the parts. [...] most physicians don't really understand bacterial organisms very well, nor how to treat them. They tend to look in their textbooks (or drug company brochures) for a pharmaceutical that is active for the bacteria in question and apply it, a fairly superficial approach that is increasingly failing in practice. If they have not definitively identified the bacterial cause of the condition they will generally prescribe a broad-spectrum antibiotic that will, as often as it helps, do more harm than good.
When approaching the treatment of coinfections, the approach should be based with rigor of analysis. [...] The most important thing in treating coinfections is to reduce the inflammatory processes the bacteria initiate, basically by counteracting the cytokine cascade they initiate. That stops pretty much all the symptoms right there especially if treatment protocols are also begun that are designed to protect the areas of the body that are affected. And again, the immune system must be strengthened. [...] The bacteria can't survive if they are not able to initiate their particular form of inflammation in the body; it is how they make habitat and scavenge food. If you enhance the immune function along with this, the body is then able to deal with the infection on its own. The addition of protocols to reduce acute symptoms and help restore quality of life are also very helpful.
Antibacterials can help but comprehensive treatment protocols must be more complex than that simple, monotherapeutic approach. Relying on a "kill the invaders" approach is becoming increasingly ineffective. [...] The bacteria are evolving. We should, too.
The seven thing to keep in mind [in the chapter of mycoplasma]
1. Replace the nutrients that are scavenged by the mycoplasmas. This must be done to avoid nutrient depletion in the body and the problems it can cause. Note: this will not "feed" the mycoplasmas. They are doing just fine feeding themselves – from your body's own tissues. Supplementation keeps your body from experiencing nutrient depletion as they do so. Cruciallly: all research has found that replacing scavenged nutrients is essential to restore normal cellular organism functioning.
To reiterate: A number of websites that discuss the treatment of mycoplasmas insist that such thing as arginine and fatty acids should not be taken in the diet as these "feed the bacteria." Again, this will only result in a worsening of the illness – the mycoplasmas need these substances and they are going to get them from your body one way or another; they are very good at doing so.
2. Reduce the cytokine cascade that the bacteria initiate. [...] since the mycoplasmas use the cytokine cascade to break down tissues to acquire nutrients, this will begin to starve them, reducing their numbers.
3. Use specific antibacterials to kill the mycoplasmal organisms or at least severely restrict their numbers. Herbs, supplements, and antibiotics are all useful and highly synergistic for this. Note: unless, specifically noted otherwise, antibiotics can be used along with all the herbs and supplements in this book.
4. Support and protect the organs and systems that the mycoplasmas affect. This will also relieve many mycoplasmal symptoms.
5. Enhance immune function. The stronger the immune system, the less severe the course of the disease.
6. Adress specific symptoms not addressed otherwise. This will reduce the symptom picture and increase the quality of life.
7. The most elegant interventions will act in three or more of these categories. That is, if you find an herb that a) replace nutrients b) reduces cytokine cascade c) protects specific organ systems, and d) enhance immune function or is antibacterial or addresses specific symptoms (or every one of those things) – that is what an elegant intervention looks like.
It is important to keep in mind that mycoplasma infections, especially of long duration, are first and foremost nutrient deficiency diseases.
SeekinTruth said:I think a well planned out, multi-pronged approach is the way to tackle these issues and learn as much about what's going on in the body as possible. I also keep thinking about the versatile adaptivity of microbes and the pleomorphic theory. It seems that proper signals and environment is paramount to get healthy, because once these things go awry, besides the chance of reinfection, there's the problem of the microbes taking over systems' proper communication and functioning that becomes like chasing a moving target. I think going after and killing the microbes works better in early infection, and becomes harder and harder to deal with as time goes on and problems progress.
SeekinTruth said:Yeah, I saw that Richard Horowitz was on the panel. I read the paper and think it has some good data to have on hand. Since it was written, there has been lots more info accumulated about biofilms, cyst stages, etc.
I bought the two Harrod Buhner books and started reading the Herbal Antibiotics. So far, it's pretty good. Can't wait to get more into the meat of it.
Sangre de grado resin and bark are used in traditional medicine in South America today in much the same manner as indigenous ones. In Peruvian herbal medicine it is recommended for hemorrhaging, as an antiseptic vaginal douche and, topically, for healing wounds. It is also used internally for ulcers in the mouth, throat, intestines and stomach; as an antiviral for upper respiratory viruses, stomach viruses and HIV; internally and externally for cancer and, topically, for skin disorders, insect bites and stings. In Brazilian traditional medicine the sap currently is used for wounds, hemorrhaging, diarrhea, mouth ulcers, and as a general tonic.
Sangre de grado resin or sap is a storehouse of phytochemicals including proanthocyanidins (antioxidants), simple phenols, diterpenes, phytosterols, and biologically active alkaloids and lignans Scientists have attributed many of the biologically active properties of the sap (especially its wound-healing capacity) to two main "active" constituents: an alkaloid named taspine, and a lignan named dimethylcedrusine.
Of course, botanists, herbalists, and naturopaths would disagree with such reductionist conclusions (and often do); in this particular case, the matter is actually proven by science. Noted author and ex-USDA economic botanist Dr. James Duke summed this up eloquently, saying, "I like the comments on dragon's blood, and would add one further note: in addition to the proanthocyanadins (including Pycnogenol) and taspine, there's another active ingredient - dimethylcedrusine. While each of these alone - dimethylcedrusine, Pycnogenol and taspine - was shown to effectively heal wounded rats (with squares of skin exfoliated, i.e., peeled off) by European scientists, the whole dragon's blood was shown to speed healing four times faster. The whole was better than the sum of its parts. Synergy makes the whole herb stronger; diversity makes the rainforest stronger."
The taspine alkaloid from sangre de grado was first documented with anti-inflammatory actions in 1979. In 1985 taspine was documented with anti-inflammatory, antitumorous (against sarcomas), and antiviral actions.
The main plant chemicals in sangre de grado include: alpha-calacorene, alpha-copaene, alpha-pinene, alpha-thujene, beta-caryophyllene, beta-elemene, beta-pinene, betaine, bincatriol, borneol, calamenene, camphene, catechins, cedrucine, crolechinic acid, cuparophenol, D-limonene, daucosterol, dihydrobenzofuran, dimethylcedrusine, dipentene, eugenol, euparophenol, gallocatechin, gamma-terpinene, gamma-terpineol, hardwickiic acid, isoboldine, korberin A & B, lignin, linalool, magnoflorine, methylthymol, myrcene, norisoboldine, p-cymene, proanthocyanidins, procyanidins, resin, tannin, taspine, terpinen-4-ol, and vanillin.
The wound-healing action of sangre de grado resin was first related to the taspine alkaloid in 1989. Several later studies also concentrated on the wound-healing and antitumorous properties of taspine. The lignan dimethylcedrusine was isolated by scientists in 1993 and was shown to play a central role in sangre de grado's effective wound-healing action. This Belgian study revealed that the crude resin stimulated contraction of wounds, helped in the formation of a crust/scab at the wound site, regenerated skin more rapidly, and assisted in the formation of new collagen. This was the study to which Dr. Duke referred in documenting that the crude resin was found to be four times more effective at wound healing and collagen formation than its isolated chemicals (and healed wounds 10-20 times faster than using nothing at all).
The Belgian scientists also determined that taspine was active against herpes virus in this study. In 1994 other phytochemicals were found, including phenolic compounds, proanthocyanadins, and diterpenes, which showed potent antibacterial activity (against E. coli and Bacillus subtilis) as well as wound-healing properties. Another study documented sangre de grado's antioxidant effects and researchers in Canada documented its antifungal properties. Another important traditional use of the sap was verified by clinical research in a 2000 study designed to evaluate its gastrointestinal effects. Researchers concluded that "Sangre de grado is a potent, cost-effective treatment for gastrointestinal ulcers and distress via antimicrobial, anti-inflammatory, and sensory afferent-dependent actions." In 2002, these same researchers reported that sangre de grado evidenced an in vitro effect against stomach cancer and colon cancer cells as well. In 2003 Italian researchers reported that the resin inhibited the growth of a human myelogenous leukemia cell line and also prevented cells from mutating in test tube studies.
Extracts of sangre de grado have demonstrated antiviral activity against influenza, parainfluenza, herpes simplex viruses I and II, and hepatitis A and B. The antiviral and anti-diarrhea properties of sangre de grado have come to the attention of the pharmaceutical industry over the last 10 years. A U.S.-based pharmaceutical company has filed patents on three pharmaceutical preparations that contain antiviral constituents and novel chemicals (a group of plant flavonoids they've named SP-303), extracted from the bark and resin of sangre de grado. Their patented drugs include an oral product for the treatment of respiratory viral infections, a topical antiviral product for the treatment of herpes, and an oral product for the treatment of persistent diarrhea. These products have been the subject of various human clinical trials. Although the immunomodulating effects of sangre de grado have not been the subject of targeted research yet, some researchers believe that the anti-inflammatory, antimicrobial, and antioxidant activities may provide nonspecific immune enhancement effects as well.
More recently, several scientific tests have been conducted on a proprietary sangre de grado product (made into a skin balm) which was also based on traditional uses. They reported that in pest control workers, a sangre de grado balm was preferred over placebo, for the relief of itching, pain, discomfort, swelling, and redness in response to wasps, fire ants, mosquitoes, bees, cuts, abrasions, and allergic plant reactions (poison ivy and others). Subjects reported relief within minutes, and that it provided pain relief and alleviated symptoms (itching and swelling) for up to six hours. These reported effects in humans as well as several other tests they conducted in animals and in vitro models of inflammation led them to conclude that sangre de grado prevents pain sensation by blocking the activation of nerve fibers that relay pain signals to the brain (therefore functioning as a broad-acting pain killer) as well as blocks the tissue response to a chemical released by nerves that promotes inflammation.
[...]
Properties/Actions Documented by Research:
anesthetic, anti-allergic, anti-inflammatory, antibacterial, antidysenteric, antifungal, antihemorrhagic (reduces bleeding), antileukemic, antioxidant, antiseptic, antitumorous, antiviral, neurasthenic (reduces nerve pain), wound healer
Other Properties/Actions Documented by Traditional Use:
analgesic (pain-reliever), anticancerous, anti-itch, antiulcerous, astringent, blood cleanser
The above text has been printed from The Healing Power of Rainforest Herbs by Leslie Taylor
Reference Quotes on Sangre de Grado
Article: South American tree sap is a pain killer, anti-inflammatory and antibiotic, Natural Science May 15, 2000:
"Dr. John Wallace of the University of Calgary's Faculty of Medicine predicts that every medicine cabinet and first aid kit in North America will one day be stocked with medicines containing the sap of the South American tree Croton lechleri.
[...]
Third-Party Published Research on Sangre de Grado
All available third-party research on sangre de grado can be found at PubMed. A partial listing of the third-party published research on sangre de grado is shown below:{it is a substantial list}
SeekinTruth said:Having read further into Herbal Antibiotics by Buhner, it's quite impressive - very well researched and documented (considering the relative lack of herbal research compared to pharmaceutical research).
Lilou said:Thanks for the summary, Gaby. I've always said, it is the things you can't see that potentially cause the most harm. And the more I learn, the more it seems to be so true.
Between 2003 and 2005, I had three tick bites (all on my head) and each time, I took a full 30 day course of antibiotics. So in retrospect, that was probably a good move!
Gaby said:- To be continued.