Not much is known about the natural herb Kratom. Although it isn’t on may people’s radar, there are lots of benefits to be had from this leaf. Taken in the proper dosage, kratom is able to aid in the recovery and relief of many ailments. In this article, we’ll go over some of the main benefits that kratom is known for. So, without further ado, these are some of the health benefits that Kratom brings:
- Pain relief
Before anyone knew Kratom, it began as herbal medicine whose main purpose is to alleviate the pain used by Southeast Asian natives. Kratom can relieve any type and severity of body aches, and long-term users simply chew their leaves or pulverize them to mix with the drinks. Simple headaches, muscle aches and the like can be relieved by the use of this plant.
- Fibromyalgia and other diseases
Those who suffer from fibromyalgia have great pain, and since Kratom’s main task is to relieve pain, it is the perfect herbal medicine to relieve muscle numbness and inflammation. In addition to fibromyalgia, kratom can also cause pain from other diseases that cause chronic pain, such as rheumatoid arthritis.
- Digestive and intestinal problems
Kratom is also known to help in the treatment of problems related to the digestive system, especially diarrhea and constipation. Irritable bowel syndrome or even severe cases of dysentery can be helped with the use of kratom when taken in its powder form (buy Best Kratom’s powder here). It is also known to be good for the kidneys, although there are still some formal studies on it Long-term kratom users, particularly from Southeast Asia, have said they have a healthy kidney because they no longer use drugs that contain multiple chemicals.
- Help diabetics
Although it does not treat diabetes directly, kratom can help a patient who has it to be safer due to its effects. One of the known effects of kratom is pain relief and relaxation, and these are important for those with diabetes, as they have to deal with pain and blood sugar levels. If you deviate from pain and stress, your blood sugar level would remain at a safe level. As a stimulant, Kratom can also help improve the flow of glucose and other nutrients that are released to the user’s muscle tissue.
- Immune system, metabolism and energy reinforcement
Kratom contains alkaloids that are known to be very useful for strengthening the immune system. This claim is still under investigation to further demonstrate its effectiveness in this area Many users claim to be less susceptible to diseases with regular use of kratom.
It is also known as a great power booster that has been tested and tested by workers, especially in Thailand, because they have used the plant for a long time to increase their energy and improve their work. Many users have also indicated that their metabolism improves with the use of kratom, so they eat more every day.
- Cure addiction
One of the great things about Kratom is it is great for helping to cure addictions. It does this by stopping cravings that addicts tend to have when it comes to drugs. Along with that, kratom also helps with withdrawals and alleviates some of the pain that drug addicts usually have when coming off of drugs.
- Remedies Depression and anxiety
Taken in small doses, kratom is very beneficial when it comes to depression and anxiety. It helps to boost the mood of subjects that take it and make them feel better overall.
So, as you can see, there are many health benefits associated with kratom. If taken responsibly and in the right dosage, kratom can be used in a variety of ways depending on what the patient is suffering from.
The cervical spine is a part of our body that seems mysterious for most people who are not medically educated. To put it bluntly, it’s one of those crucial elements of the body which controls our movements and causes so much pain when neglected. Due to our work habits – sitting too long or standing too long in one pose – cervical spine suffers from the pressure we put on it. And that’s when all the neck pain problems start to happen.
The best way to prevent the cervical spine issues is to consult a credible site with Cervical Spine Guide and Health Information. In the meantime, here’s the sum up from the recent medical studies and findings on the cervical spine.
Common cervical spine conditions
Since the cervical spine connects the neck (the base of the skull) and the upper back, there is a reason to believe that the conditions which start with recurrent neck pain are more severe than we think. Although the seven vertebral segments that constitute the cervical spine are flexible – which allows the neck to move – the constant pressure on this part of the spine can lead to permanent medical conditions. Some of them include scoliosis, spondylosis, and other types of neck or degenerative joint diseases.
What causes the cervical spine problems
The poor posture can put additional pressure on this part of the spine. Keeping your neck too low when sitting down can slowly damage the order of cervical vertebrae, which often results in chronic pain. The pain can be located in the neck, in the arms, or alongside the spine. If not treated on time, it can lead to damaging your nerve system and causing your problems with your sleep, focus, concentration, etc.
The key to discovering cervical spine problems is through a detailed medical evaluation of patient’s condition. After establishing the symptoms such as a headache, pain in the neck or upper back, numbness, etc. the physician should start the exam by investigating the structure of the neck and shoulder. It can be done manually, but for more in-depth evaluation it’s recommended to take a CTR or MRI.
Cervical spine treatments
The recent findings on the cervical spine were in part focused on developing the medical treatments that will effectively deal with the axial neck pain, radiculopathy, or myelopathy as the primary degenerative cervical spine disorders. The most beneficial treatments for neck pain issues are the non-operational treatments, according to the majority of patients that are experiencing severe neck pain problems.
Among those who are suffering from the cervical spine, conditions are people who are highly educated, who have a history of previous medical conditions that relate to the lower back or headaches, and who had a prior trauma or injury in this part of the body.
It is a common concept that our brain starts getting dull and slow as we grow old but some studies have shown that our mind is structured in such a beautiful way that we can easily improve its performance at any age. The problem why elder people can’t memorize things like teenagers is that they do not regularly use their brain functions in the old age.
The brain functions will only work properly if you keep using them regularly. There are several ways of improving your mental clarity and performance that are being used in the scientific and medical world nowadays, which we will outline in this article.
Here are the 6 important ways that can help improve the mental clarity and performance:
Avoid chronic stress
The functionality of hormones is completely different from each other. Some hormones can negatively affect the performance of your brain with the passage of time. Cortisol is a hormone that starts releasing when you experience the chronic stress. The main function of this hormone is to help your brain stay safe from the life-threatening situations.
However, the number of brain cells can be decreased due to the higher levels of cortisol over a long period and this may lead to dull memory. You must avoid the chronic stress with things like meditation or omharmonics, as well as other useful techniques to maintain the performance of your brain.
There are many exercises that can help improve your mental clarity and performance. You must make a habit of performing these exercises regularly if you want to improve the functionality of your brain cells.
The experts have introduced several health supplements that can help improve the functionality of your brain muscles. We recommend that you must consider using the herbal supplements instead of other types of supplements because they do not have any side effects.
Taking proper sleep
Your sleeping routine can also affect the performance of your brain regularly. If you’re not taking enough sleep, your brain will start getting dull and old very quickly. A disturbed sleeping routine can also affect the brain cells badly. You must follow a proper sleeping routine to improve the performance of your brain cells.
The science has proved that our regular diet plays an important in role in improving our health. And it doesn’t only help in improving the physical health but it also helps improve your mental health overtime. Therefore, you must consider eating the snacks that can help improve the performance of your brain cells in an effective way.
The fun activities can also help improve your mental performance. In our busy life, we do not get enough time to have some fun with friends and family. Our brain starts getting tired if we do not perform the fun activities regularly. Therefore, you must participate in several activities to improve the functionality of your brain.
The probiotics business has expanded very fast in the past few year and it is continuously growing. There are several supplements (gums, powders, capsules, lozenges, and tablets) and foods that are used as the probiotics. These products contain the good amount of bacteria in them that is beneficial for our health. The purpose of these probiotics is to help in weight loss, strengthen immunity, improve digestion, and protect against periodontal disease.
There are many other amazing benefits of these probiotics that you’re going to enjoy once you start using them regularly. Taking a look at the nucific and bio x4 reviews helps you understand the importance of using these products. The proponents claim that these probiotics are used to rebalance the normal microflora in the large intestine, therefore, they are very good for your health.
The number of strains the probiotics contain is different in the different situations. Similarly, the number of organisms in a daily dose is also different from each other. Many manufacturers charge you a premium price by saying that their product contains a good amount of probiotics in it. In this article, we’re going to talk about the pros and cons of these probiotics so that you may make an informed decision that whether they’re good for you or not.
There is no doubt that the mother’s milk is extremely important for the babies as it helps them stay healthy. The recent research has shown that more than 600 types of good bacteria are found in the mother’s milk. The mother’s milk help improve the digestion in the stomach and it also helps strengthen the bones of the baby.
The good bacteria keep an eye on the harmful bacteria in our stomach. Additionally, the digestion and absorption of nutrients are some other key features of the good bacteria.
Healthy balance of stomach bacteria
You need to eat healthy and balanced food if you want to keep your stomach in a healthy position. Different useful bacteria are found in the different types of foods. Therefore, the balance of bacteria in our stomach can be affected by the age diabetes, obesity, genetics and poor diet. The good bacteria are also killed by the antibiotics that are used to kill harmful bacteria.
Foods like yogurt and yeast can help improve the number of bacteria in your stomach but unfortunately, there are some countries that do not use these foods as their regular diet. Such types of countries need to buy the probiotics from the pharmacy to maintain the number of bacteria in their body.
There are no harmful effects of probiotics but you should be very careful about choosing them because some probiotics are designed for some special condition. So, you must consult your doctor before making a final decision.
Sorry to have been gone for so long, but I wanted to take extra time on this topic because….well, because it needs extra time and attention to detail.
In growing numbers, people are taking their autistic children to “clinics” – in Costa Rica, in Germany, in Russia – to get “stem cell” injections. I put “stem cell” inside inverted commas because it is not entirely clear that what these children are receiving are actual stem cells.
And that might be the “good news” in this post – more about that later.
Stem cells have been in the news a lot, especially the past year, since President Obama cleared the way for embryonic stem cell research. So, today, almost everybody above the age of three has heard of them – but how many people really know what they are and what they can (and can’t) do? Not so many, I think (based on what I’ve heard people say about stem cells).
What are stem cells?
Judging by the many and varied things that the lay press have said about stem cells, you might be forgiven for thinking that they are magical little beings that swim to the site of whatever medical problem exists and fix it – sort of like the “nano-machines” that periodically crop up in science fiction stories. However, sad to say, that isn’t the case.
Stem cells are nothing more than a type of cell that can differentiate (develop into) a different type of cell – sometimes many different types of cells (and can proliferate – divide – indefinitely). Far from being magical semi-sentient beings, they are quite prosaic and exist in your bone marrow, under your skin, in your brain – pretty much everywhere in your body. They range from the humble karatinocyte stem cell of your skin – which can only produce karatinocytes (the outer layer of your skin) – to the omnipotent stem cells present in the first few cell divisions after fertilization, which can each develop into a complete organism (see: “identical twins”).
What has some scientists excited about stem cells is the potential to use certain types of them to treat illnesses and injuries that are currently beyond our abilities. In a few cases, we have already seen these therapies work – in most cases, they remain tanalizingly out of reach.
There are a number of different types and degrees of stem cells, which complicates the discussion considerably. The cells of a zygote (fertilized egg) that is still in its first few cell divisions can each become a complete organism (as mentioned above), but before long (a few hours, in most cases), those cells have differentiated to the point where they can’t make an entire organism, but they can still produce cells of any tissue or organ of the body. Once they have “committed” to going down a particular developmental path, they cannot (usually) go back (without our “help”). Eventually, the differentiation process progresses to the point where the cell is terminally differentiated – it has become a liver cell or a neuron and it will not (again, usually) become anything else.
There are two general features of a terminally differentiated cell: it can only divide a few times – at most – and it cannot generate or develop into a different type of cell (again, in biology, there are always the rare exceptions to this and every other rule).
Unipotent and multipotent stem cells:
In order to deal with cell death due to injury or senescence (”wearing out”), most tissues and organs have a pool of unipotent and multipotent stem cells. Unipotent stem cells – as the name implies – can generate one type of cell (e.g. the keratinocyte stem cell can only make keratinocytes); multipotent stem cells can generate a range of related cell types. A good example of multipotent stem cells are the marrow stem cells, which can generate any of the blood cells – red cells, white cells (all types) and platelets – but cannot make, for instance, neurons or skin cells.
Pluripotent stem cells:
This is the type of stem cell that most of the media “hype” is all about. These stem cells can develop into any cell type from any of the three germ cell layers. These are not found in significant numbers beyond infancy, although there have been a number of studies showing that they do persist (in small numbers) into adulthood.
One of the major breakthroughs in stem cell research – and one that might not have happened this soon without the politically-motivated ban on embryonic stem cell research – has been the ability to take adult cells [Note: in stem cell research, cells become “adults” shortly after birth of the organism.] and “reprogramme” them into pluripotent stem cells. This not only gets us around some rather sticky moral and political controversies, it also gets us around the problem of the immune system. More about that in the next section.
Embryonic vs Adult stem cells:
The next classification of stem cells refers to their origin. Thus we have embryonic stem cells (ESC) that come from the inner cell mass of an embryo, adult stem cells (generally multipotent stem cells) and induced stem cells (iPSC, iMSC) that are made from either adult stem cells or somatic (terminally differentiated) cells.
How do stem cell therapies work?
Adult stem cells – generally marrow stem cells, since they are easiest to “harvest” – have been used for some time in the treatment of leukemia and lymphoma. They have even been used – with significantly less success – in the treatment of breast cancer and brain cancer. The reason that bone marrow stem cells are so useful is not because they have some magical anti-cancer activity; they simply allow the oncologists to use much higher doses of chemotherapeutic drugs. One of the limiting factors in chemotherapy for cancer is the bone marrow – higher doses run the risk of killing off too much (or all) of the bone marrow stem cells, killing the patient (usually due to infection from low white blood cell count – red cells and platelets can be transfused).
By taking out some of the patient’s own bone marrow stem cells and saving them, they can be re-infused after the chemotherapy has been completed – in essence, they “re-seed” the marrow. This allows them to use much higher chemotherapy doses, which (in some situations) can make the difference between a relapse and a remission.
A similar process is used – experimentally, for now – in the treatment of multiple sclerosis . Multiple sclerosis is an auto-immune disease, where a group of immune cells are reacting to the patient’s own tissues (the myelin covering of their nerves, in this case). Recent advances in cell identification and sorting have allowed researchers to isolate only stem cells from the marrow (and none of the terminally differentiated cells that are causing the problem). After the stem cells are removed, the patient receives a course of chemotherapy (and occasionally radiation) to kill off the immune system, after which the stem cells are re-infused to “re-seed” the marrow with (hopefully) healthy cells. This appears to be somewhat promising in limited trials to date, but it is far from established therapy.
A bit more experimental is the use of stem cells to repair damaged tissues, such as heart muscle, nerves (spinal cord) and brain. To do this you need pluripotent stem cells (or you need to extract the stem cells from the tissue/organ – a technique that hasn’t been developed yet). You can use either embryonic stem cells (ESC) or induced pluripotent stem cells (iPSC). So far, the few clinical trials using stem cells for cardiac disease are either in the early stages or not yet started.
Early on in stem cell research – before the discovery of techniques to induce terminally-differentiated adult cells to become pluripotent stem cells – it was thought that only embryonic stem cells were pluripotent. But studies (and a few clinical trials) using embryonic stem cells ran into problems with the immune system. Embryonic stem cells (unless they were harvested from the patient’s umbilical cord blood or a genetically identical donor) are foreign to the recipient, so there is the problem of rejection so familiar in organ transplants, where the recipient’s immune system attacks the stem cells. If the stem cells are (or differentiate into) immune cells, they can even turn about and attack the recipient’s cells, a phenomenon known as graft vs host disease. Either situation calls for immune suppression, which limits the usefullness of embryonic stem cells.
The advantage of using iPSC’s is that they are (usually) the patient’s own cells, so there is essentially zero chance of rejection or immune reaction. Of course, if the problem is a genetic one, there is probably little point in using the patient’s own cells, since they will carry the same mutation.
Unfortunately, iPSC’s carry some “baggage”, as well – literally. In order to “reprogramme” adult cells to become iPSC’s, certain genes – that have been permanently inactivated in terminally differentiated cells (and even in multipotent stem cells) – need to be “turned on”. Initially, this was done using lentiviral vectors – retroviruses that had been “engineered” to carry non-inactivated versions of the four critical genes (Oct3/4, Sox2, c-Myc and Klf4) into the cells and insert them into the DNA . This worked very well, but the problem is that lentiviruses are rather….indiscriminate about where they insert themselves, so there is a chance that they will do so in a place that inactivates a critical gene. This is why so many of the lentiviruses are known as oncoviruses (cancer-causing viruses). As you might imagine, this limited the use of iPSC’s to experimental animals.
More recently (2008), a research team has managed to convert embryonic fibroblasts to iPSC’s without using a viral vector, using plasmids  and even more recently, another team managed to do it with proteins alone . Both of these techniques are – needless to say – still being refined and are not ready for clinical trials.
So, if anybody is getting “stem cell therapy” today, it is either from their own bone marrow (and will produce only blood cells) or it is from embryonic stem cells (and carries the risk of rejection and/or graft vs host disease).
For more information about health and autism. Click here.
There are some “alt-med” treatments for autism that are like the zombies in B-grade horror movies. You think they’re dead, but as soon as you turn your back, they’re up and shambling around, searching for…..well, they’re usually looking for money, so they don’t fit the zombie analogy that well.
Chelation, secretin and HBOT have all been shown to be no more than profit centers for “alternative” practitioners, but my contacts in the “biomed” world tell me that they are still being prescribed (and inflicted) on autistic children. Apparently, it’s going to take more than decapitation or a stake through the heart to put these undead therapies in the ground for good.
Which brings me to the undead therapy that has – I would have thought – the best reason to be dead, buried and resting in peace: acyclovir/valacyclovir.
For the past few years, I had been living in blissful ignorance of the ongoing use of acyclovir and valacyclovir in the “treatment” of autism. Sure, they were “hot stuff” a few years ago, back when some misguided practitioners were using them to treat “chronic measles infection”. But I thought that people had wised up and realised that these anti-viral drugs have absolutely no effect on measles and – in plain fact – can’t have any effect on the measles virus.
Fast forward to a few months ago, when a worn-out mom asked me if I thought that acyclovir would be as effective as valacyclovir for the treatment of chronic measles.
My initial thought was that they would be equally ineffective, but I managed to keep that thought from being voiced. Instead I asked, “Are you sure that your doctor is using valacyclovir for measles?” The answer was chilling – the undead zombie of “valacyclovir for chronic measles” had risen from its restless grave.
Before I go any further, it might be useful to explain what acyclovir and valacyclovir are, how they work and what their side-effects are.
How acyclovir and valacyclovir work:
The “parent” drug is acyclovir, which was first licensed for use in the US back in 1982 (it is currently off-patent). Valacyclovir (USFDA approved 1995) is simply acyclovir with valine (an amino acid) bound to it to improve its uptake from the gastrointestinal tract (55% vs 10-20% for acyclovir). The valine is cleaved from valacylovir by esterases in the liver, releasing the active drug, acyclovir. So, when it comes to efficacy and side effects, the two drugs are pretty much identical. When it comes to cost, valacyclovir is more expensive, though there is a generic form.
Acyclovir (and, thus, valacyclovir) works by interacting with the enzyme thymidine kinase. This enzyme takes thymidine deoxynucleoside and phosphorylates it to TMP, which then is further phosphorylated to TTP, which is a component of DNA. Herpes viruses happen to make their own thymidine kinase, which they need because they replicate in non-dividing cells (e.g. neurons) that don’t produce TTP (but do produce ATP, CTP and GTP, needed for RNA synthesis). Herpes viruses also make ribonucleotide reductase, which can convert these ribonucleic acids them all to the deoxy- form needed for DNA.
OK, maybe that was more information than some people wanted. The “short form” is that herpes viruses make their own thymidine kinase because, in “resting” cells (i.e. non-dividing cells), the cellular thymidine kinase is “switched off”.
The reason that acyclovir works against the herpes viruses and doesn’t simultaneously kill all the cells of the patient is that the viral thymidine kinase is not as specific – as “fussy” – about its substrate as the cellular (human) thymidine kinase; it will take the acyclovir molecule and phosphorylate it. The cellular enzyme, however, isn’t perfect, it will also phosphorylate acyclovir, but at only 1% the rate of the viral thymidine kinase.
Once acyclovir is phosphorylated by thymidine kinase, cellular enzymes further phosphorylate it to the triphosphate form and then the viral (or cellular) DNA polymerase can add it to the growing DNA chain (it “looks” like GTP). Once added, however, it lacks the 3′ -OH needed to add the next nucleotide and the DNA chain stops prematurely (premature termination). Needless to say, if the virus cannot replicate its genome, it can’t form new viruses and can’t infect. That’s how acyclovir and valacyclovir work.
Remember that the herpes virus thymidine kinase activates acyclovir 100 times faster than the cellular (human) enzyme. Well, that’s why acyclovir is relatively non-toxic. That, of course, is “relative to other anti-viral agents”, which is rather like saying “safer than swimming with sharks”. Still, acyclovir is pretty safe, apart from the rare renal failure seen during longer treatment.
Considering how dangerous herpes virus infections can be (and how painful), acyclovir and valacyclovir have very favorable risk:benefit ratios… IF they are being used to treat a herpes virus infection (more about that later).
What about measles?
Yes, what about measles? You’ll have noticed that I didn’t mention anything about measles. Or other viruses, for that matter. Well, as it turns out, acyclovir (and its close relative, valacyclovir) don’t have any effect on measles. Even though acyclovir has been used in the treatment of HIV/AIDS, it is primarily to suppress herpes virus. Acyclovir isn’t even effective against all herpes viruses – CMV and EBV aren’t that susceptible.
So, why isn’t acyclovir effective against measles? You’ll recall that I discussed how acyclovir interferes with DNA synthesis, blocking the replication of the herpes virus genome. Measles virus (wild type and vaccine strain) has an RNA genome. That’s right, it doesn’t make DNA. Not even a bit. So a drug that interferes with DNA synthesis is pretty much useless against measles.
Let me repeat that: measles is an RNA virus without a DNA stage, so drugs like acyclovir and valacyclovir – which interfere with DNA synthesis – have no effect on measles.
However, the side-effects from acyclovir and valacyclovir are present whether or not the drug is given for a rational reason.
“But it works!”:
Inevitably, someone will reply “But valacyclovir helped my child recover from autism!” It may be true that their child’s improvement happened after the valacyclovir was started, there is no plausible physiological reason that the improvement can be tied to the drug. Coincidences happen, and for every person I’ve heard say that valacyclovir “recovered” their autistic child (1), I’ve heard twenty or more say that it had no effect.
Acyclovir and valacyclovir are relatively safe anti-viral drugs that are effective against herpes simplex virus (types 1 and 2) and, to a lesser extent, varicella/herpes zoster/chicken pox. They are also somewhat effective against the herpes viruses cytomegalovirus (CMV) and Epstein-Barr virus (EBV).
Acyclovir and valacyclovir are not effective against measles virus (or mumps or rubella or polio or….) or any other RNA virus. In fact, they aren’t effective against anything other than the herpes viruses.
If your child’s doctor has prescribed or recommended acyclovir or valacyclovir to treat “chronic measles infection” or autism or, for that matter, anything other than a herpes virus infection, you should seek an independent second opinion.
For more information about health and autism. Click Here.