Tuesday, May 8, 2018

STAY AWAY FROM ARTIFICIAL SWEETENERS!

Reconfirmed: Artificial Sweeteners Make You Fat and Sick

artificial sweeteners effects

Story at-a-glance 

  • A growing body of research shows artificial sweeteners raise your risk of both obesity and Type 2 diabetes — perhaps even to a greater degree than sugar
  • Recent research shows both sugar and artificial sweeteners damage vascular function and cause cellular changes that “may be important during the onset and progression of diabetes and obesity”
  • Unlike sugar, artificial sweeteners were found to accumulate in blood, leading to more significant damage to blood vessels. Acesulfame potassium appeared to be worse than aspartame in this regard
  • The artificial sweeteners were also found to trick the body into using alternative sources of glucose, such as muscle. Evidence of protein break down was found in the animals’ blood
  • The results indicate artificial sweeteners alter how your body processes fat and produces energy at the cellular level, and while working on different chemical pathways, they produce the same kinds of health consequences as sugar
By Dr. Mercola
If you’re still holding out hope that science will eventually prove artificial sweeteners to be beneficial, or at the very least harmless, you’re likely to be disappointed. Again and again, research shows no-calorie sweeteners such as aspartame and sucralose cause the same problems as excess sugar, and then some.
According to the latest statistics1 nearly 40 percent of American adults, over 18 percent of teens and nearly 14 percent of young children are now obese, not just overweight, and processed foods and sweetened beverages are clearly driving factors. Unfortunately, many make the mistake of thinking artificially sweetened products are a healthier option as it cuts down your calories, but nothing could be further from the truth. 
The international trend of taxing sugary beverages to discourage sugar consumption has also had the unfortunate side effect of causing beverage makers to switch to artificial sweeteners rather than sugar and other calorie-rich sweeteners. However, when it comes to health, artificial sweeteners cause just as many health problems as sugar does. 

Artificial Sweeteners Again Linked to Obesity and Diabetes

Over the years, an ever-growing number of studies have shown artificial sweeteners raise your risk of both obesity and Type 2 diabetes — perhaps even to a greater degree than sugar does. Most recently, animal research2,3 presented at the annual Experimental Biology conference in San Diego again confirmed that artificial sweeteners raise your risk of obesity and diabetes. 
The study, which explored how different sweeteners affect the way food is used and stored in the body, and how they affect vascular functioning, found both sugar and artificial sweeteners result in impairments, albeit through different pathways. As noted by the authors:
“This study tested the response of the vascular endothelium in vitro and the in vivo response of a diabetes susceptible … rat model to glucose, aspartame, and acesulfame potassium supplementation … Through this set of experiments we have identified unique signatures of alterations in lipid metabolism, among others, following artificial sweetener consumption. 
Overall, results of this study suggests that exposure to high glucose and artificial sweetener administration lead to unique mechanisms of vascular impairment and homeostatic alterations that may be important during the onset and progression of diabetes and obesity.” 

Sugar Versus Artificial Sweeteners — Different Mechanisms of Action, Similar Results

After being fed a diet high in either artificial sweeteners (aspartame or acesulfame potassium) or sugars (glucose or fructose) for three weeks, detrimental effects were seen in all groups. All had increased blood lipids (fats), but the artificial sweeteners also accumulated in the blood of the animals, which harmed the blood vessel lining to a greater degree. Of the two artificial sweeteners, acesulfame potassium appeared to be the worst. 
The results of the study — which used unbiased high-throughput metabolomics, a technique that allows you to investigate how something affects cellular metabolism — indicate that artificial sweeteners alter how your body processes fat and produces energy at the cellular level. So, while operating on completely different chemical pathways, they produce the same kinds of health consequences as sugar. 
As noted by lead author Brian Hoffmann, Ph.D., assistant professor in the department of biomedical engineering at the Marquette University and Medical College of Wisconsin,4 “In moderation, your body has the machinery to handle sugar; it is when the system is overloaded over a long period of time that this machinery breaks down.” 
Artificial sweeteners, on the other hand, wear the machinery down. “Sweeteners kind of trick the body. And then when your body’s not getting the energy it needs — because it does need some sugar to function properly — it potentially finds that source elsewhere,” he says.5
One alternative sugar source is muscle, and indeed, evidence of protein break down was found in the animals’ blood. Essentially, the rats were burning muscle as a source of energy when given artificial sweeteners. Hoffman also notes that this research is different from previous attempts to conclusively tie artificial sweeteners to health problems:
“Most of these sweeteners were approved well before we had the technology to perform studies like my lab is doing. So they weren’t able to look as in-depth at some of the potential effects being caused. By knowing what biochemical changes these are causing through these large-scale studies, we can take an unbiased approach and see what’s changing to give us a better direction.
What I like to tell people is that most things in moderation are going to be fine … It’s when people start to chronically consume these [drinks] — say, a person drinks two, three, four … every day — that we should start to be concerned. Because you’re starting to introduce these biochemical changes and the body has no time to recover.”

Artificial Sweeteners Trick Your Body Into Storing Fat

Contrary to industry claims, research over the last 30 years have shown that artificial sweeteners stimulate appetite, increase cravings for carbs, and produce a variety of metabolic dysfunctions that promote fat storage and weight gain, often to the researchers’ great surprise. Below is a sampling of some of the studies published through the years.
Preventive Medicine 19866
This study examined nearly 78,700 women aged 50 to 69 for one year. Artificial sweetener usage increased with relative weight, and users were significantly more likely to gain weight compared to those who did not use artificial sweeteners, regardless of their initial weight. 
According to the researchers, the results “were not explicable by differences in food consumption patterns. The data do not support the hypothesis that long-term artificial sweetener use either helps weight loss or prevents weight gain.”
Physiology and Behavior, 19887
In this study, they determined that no- or low-calorie sweeteners can produce significant changes in appetite. Of the three sweeteners tested, aspartame produced the most pronounced effects. 
Physiology and Behavior 19908
Here, they found that aspartame had a time-dependent effect on appetite, “producing a transient decrease followed by a sustained increase in hunger ratings.” 
Journal of the American Dietetic Association 19919
In a study of artificial sweeteners performed on college students, there was no evidence that artificial sweetener use was associated with a decrease in their overall sugar intake either. 
International Journal of Food Sciences and Nutrition 200310
This study, which looked at 3,111 children, found that diet soda, specifically, was associated with higher body mass index (BMI). 
International Journal of Obesity and Metabolic Disorders 200411
This Purdue University study found that rats fed artificially sweetened liquids ate more high-calorie food than rats fed high-caloric sweetened liquids. The researchers believe the experience of drinking artificially sweetened liquids disrupted the animals' natural ability to compensate for the calories in the food. 
San Antonio Heart Study 200512
Data gathered from the San Antonio Heart Study, which went on for 25 years, showed drinking diet soft drinks increased the likelihood of serious weight gain far more so than regular soda.13 On average, for each diet soft drink the participants drank per day, they were 65 percent more likely to become overweight during the next seven to eight years, and 41 percent more likely to become obese.
Journal of the American College of Nutrition 200514
In this two-year-long study, which involved 166 school children, increased diet soda consumption was associated with higher BMI at the end of the trial. 
The Journal of Pediatrics 200615
The National Heart, Lung, and Blood Institute Growth and Health Study followed 2,371 girls aged 9 to 19 for 10 years. Soda consumption in general, both regular and diet, was associated with increase in total daily energy intake.
Yale Journal of Biology and Medicine 201016
This review offers a summary of epidemiological and experimental evidence concerning the effects of artificial sweeteners on weight, and explains those effects in light of the neurobiology of food reward. More than 11,650 children aged 9 to 14 were included in this study. 
Each daily serving of diet beverage was associated with a BMI increase of 0.16 kg/m2. It also shows the correlation between increased usage of artificial sweeteners in food and drinks, and the corresponding rise in obesity. 
obesity rates
Source: Yale Journal of Biology and Medicine June 8 2010: v83(2)
According to the authors: 
“[F]indings suggest that the calorie contained in natural sweeteners may trigger a response to keep the overall energy consumption constant ... Increasing evidence suggests that artificial sweeteners do not activate the food reward pathways in the same fashion as natural sweeteners … [A]rtificial sweeteners, precisely because they are sweet, encourage sugar craving and sugar dependence.”
Appetite 201217
Here, researchers showed that saccharin and aspartame cause greater weight gain than sugar, even when the total caloric intake remains similar. 
Trends in Endocrinology & Metabolism 201318
This report highlights the fact that diet soda drinkers suffer the same exact health problems as those who opt for regular soda, such as excessive weight gain, Type 2 diabetes, cardiovascular disease and stroke.19,20 The researchers speculate that frequent consumption of artificial sweeteners may induce metabolic derangements. 
The Journal of Physiology 201321,22
This study demonstrated that your body is not fooled by sweet taste without accompanying calories, which is yet another reason why artificial sweeteners promote obesity. When you eat something sweet, your brain releases dopamine, which activates your brain’s reward center. The appetite-regulating hormone leptin is also released, which eventually informs your brain that you are “full” once a certain amount of calories have been ingested. 
When you consume something that tastes sweet but doesn’t contain any calories, your brain’s pleasure pathway still gets activated by the sweet taste, but there’s nothing to deactivate it, since the calories never arrive. Artificial sweeteners basically trick your body into thinking that it’s going to receive calories, but when the calories fail to arrive, your body continues to signal that it needs more, which results in carb cravings.
Nature 201423
This important study was able to clearly show causality, revealing there’s a direct cause and effect relationship between consuming artificial sweeteners and developing elevated blood sugar levels. People who consumed high amounts of artificial sweeteners were found to have higher levels of HbA1C — a long-term measure of blood sugar — compared to nonusers or occasional users of artificial sweeteners.
Seven volunteers who did not use artificial sweeteners were then recruited, and asked to consume the equivalent of 10 to 12 single-dose packets of artificial sweeteners daily for one week. Four of the seven people developed “significant disturbances in their blood glucose,” according to the researchers. 
Some became prediabetic within just a few days. The reason for this dramatic shift was traced back to alterations in gut bacteria. Some bacteria were killed off, while others started proliferating.
PLOS One 201424
This study, which was done on rats, using aspartame, also found an increased risk of glucose intolerance. Animals that consumed artificial sweeteners ended up with raised levels of propionate — short-chain fatty acids involved in sugar production. Consumption of artificial sweeteners shifted gut microbiota to produce propionate, which generated higher blood sugar levels.  

Other Ways Artificial Sweeteners Harm Your Health 

Artificial sweeteners have also been linked to a number of other adverse effects. For example, the amino acids in aspartame attack your cells, even crossing the blood-brain barrier to attack your brain cells, creating toxic cellular overstimulation (excitotoxicity), and sucralose (sold under the brand name Splenda) has been linked to:
  • Decreased red blood cells, a sign of anemia, at levels above 1,500 milligrams per kilo per day
  • Increased male infertility by interfering with sperm production and vitality, as well as brain lesions at higher doses
  • Kidney enlargement and calcification 
  • Significantly increased risk for miscarriage (in rabbits, spontaneous abortions affected nearly half the rabbit population given sucralose, compared to zero aborted pregnancies in the control group)
  • Significantly increased death rate (a 23 percent death rate in rabbits, compared to a 6 percent in the control group)

Artificial Sweeteners Destroy Your Gut Microbiome, and Much More 

An in-depth scientific review25 of sucralose published in the Journal of Toxicology and Environmental Health also reveals an extensive list of safety concerns, including toxicity, DNA damage and heightened carcinogenic potential when used in cooking. It turns out that when heated, sucralose releases chloropropanols, which belong to a class of toxins known as dioxins, known to cause cancer and endocrine disruption. 
Importantly, this review also concluded that sucralose destroys gut bacteria. In fact, animal research26 published in 2008 found it could kill as much as 50 percent of your microbiome, and appeared to targeted beneficial microorganisms to a greater extent than pathogenic and more detrimental bacteria. This is really important, as any time you destroy healthy intestinal bacteria you open yourself up to unfriendly microorganisms that can cause health problems. 
Studies have also found that sucralose alters glucose, insulin and glucagon-like peptide-1 levels and responses,27 thereby raising your risk for diabetes. Besides worsening insulin sensitivity and promoting weight gain, aspartame and other artificial sweeteners also promote other health problems associated with excessive sugar consumption, including:
  • Cardiovascular disease and stroke28,29,30
  • Alzheimer’s disease. While poor diet is a major driver of Alzheimer’s in general, the key mechanism of harm here appears to be methanol toxicity, a problem associated with aspartame in particular. In a previous interview, toxicology expert Dr. Woodrow Monte (author of the book “While Science Sleeps: A Sweetener Kills”31) explains the links between aspartame and methanol toxicity and the formation of toxic formaldehyde

Surprising Reason Processed Foods Promote Drug-Resistant Disease

In related news, researchers have also found an intriguing link between processed foods and drug-resistant disease. Here, a sugar called trehalose is a preferred fuel for two of the most problematic strains of clostridium difficile (C. diff), microbes that cause severe gut infection and can lead to death. Deaths associated with this infection increased fivefold between 1999 and 2007, in part due to C. diff strains having developed resistance against antibiotics. 
Moreover, researchers found that more virulent strains of C. diff were outcompeting less harmful strains inside the human gut. To determine how and why, they tested more than 200 different sugars and amino acids to see whether these more virulent strains were somehow able to use some food sources more efficiently than others — and this is precisely what they found.32 As reported by The New York Times:33
“Trehalose occurs naturally in mushrooms, yeasts and shellfish, among other things. It has historically been expensive to use, but in the late 1990s a new manufacturing process made the sugar cheap. That was good news for companies that manufactured prepackaged foods, because trehalose works great for stabilizing processed foods, keeping them moist on the shelf and improving texture. 
Since about 2001, we’ve added loads of it to everything from cookies to ground beef. What Dr. [Robert] Britton and his colleagues contend is that, in doing so, we’ve inadvertently cultivated the most toxic C. diff strains, driving what has become a scourge of hospitals. As evidence, he points to the timing of recent C. diff epidemics. The virulent strains existed before 2000, but they didn’t cause as many outbreaks. 
Only after large quantities of trehalose entered the food supply did they become this deadly … Britton also found that mice infected with those virulent strains of C. diff that consumed the sugar fared worse than infected mice that were not fed the sugar … ‘What this research shows is that people should be considering the ecological impacts of food stuffs,’ Britton [says]. ‘Our gut bacteria are being bombarded with things that we never ate — or never ate in the concentrations we eat now.’”

For Optimal Health, Drink More Clean Water

I firmly believe ditching soda and other sweetened beverages is one of the most important steps you can take to improve your weight and health, and this includes artificially sweetened beverages as well, which may in fact be worse for your health than regular soda. 
As you can see, the scientific evidence shows artificial sweeteners can stimulate your appetite, increase carb cravings, stimulate fat storage and promote weight gain just like regular soda. As noted above, diet soda is associated with a 50 percent increased risk of obesity while regular soda (at a rate of one can per day) is associated with a 60 percent increased risk. 
In addition to that, aspartame is associated with a long list of other harmful effects, ranging from brain damage to pre-term delivery, while sucralose has been found to be particularly damaging to your intestines.34,35 Unfortunately, many are still in the dark about these health risks. Sugar also promotes unhealthy bacterial growth, and many are already deficient in healthy bacteria due to consuming too many highly-processed foods. 
This is why I recommend eating fermented vegetables every day, or at the very least taking a high-quality probiotic. Remember, pure water is a zero-calorie drink. You cannot find a beverage that contains fewer calories. If you want some flavor, just squeeze a little bit of fresh lemon or lime into mineral water. In instances where your cooking, baking or beverage needs a little sweetener, be mindful of your choice. For more information, see “Sugar Substitutes — What’s Safe and What’s Not.”

Thursday, May 3, 2018

THE SERIOUSNESS OF HEAD INJURY!!!

Even a Mild Head Injury Increases Your Risk for Parkinson's Disease

head injury

Story at-a-glance 

  • The accumulation of mild head trauma over time has been shown to raise your risk for neurological dysfunction later in life. This includes not only Alzheimer’s but also another neurodegenerative process, Parkinson’s disease
  • According to recent research, even a single concussion could increase your risk for Parkinson’s by 56 to 83 percent, depending on the severity of the injury
  • Those with one or more TBIs in their past also received a diagnosis of Parkinson’s on average two years earlier compared to those who had never had a TBI
  • Telltale signs of TBI include poor concentration, mood changes, irritability, changes in your ability to focus and follow through on mental tasks, poor word recall, foggy thinking and sleep problems
  • Commonsense strategies that will lower your risk of suffering a TBI are discussed, as are helpful treatment aids that will facilitate brain healing
By Dr. Mercola
According to some estimates, as many as 90 percent of the population have experienced some form of traumatic brain injury (TBI), be it from a car accident, slip and fall incident or simply hitting your head on a cabinet. Unfortunately, most go undiagnosed and untreated, and the accumulation of low-grade concussions over time has been shown to raise your risk for neurological dysfunction later in life. This includes not only Alzheimer’s but also Parkinson’s disease.1,2
Parkinson's disease is a neurodegenerative disorder in which neurons in dopamine-producing cells within a region of your brain known as the substantia nigra, which is required for normal movement, begin to weaken and die. Symptoms, which typically progress over time, include tremors, slow movement, rigid limbs, stooped posture, an inability to move, reduced facial expressions, and a shuffling gait. The condition can also cause depression, dementia, speech impairments, personality changes and sexual difficulties. 

Concussion Linked to Increased Risk of Parkinson’s Disease

According to recent research published in the journal Neurology,3 even a single concussion could increase your risk for this degenerative brain disease. Here, “concussion” was defined as loss of consciousness for up to 30 minutes or alteration of consciousness and/or amnesia for up to 24 hours. 
Medical records of nearly 326,000 U.S. military veterans ranging in age from 31 to 65 were evaluated in this retrospective cohort study, showing that a TBI resulting in loss of consciousness raised the risk of Parkinson’s by 56 percent. 
Veterans who experienced more serious TBIs (classified as moderate-to-severe) were 83 percent more likely to develop Parkinson’s. Overall, all-severity TBI (i.e., TBIs of any severity classification) was associated with a 71 percent increased risk. Those with one or more TBIs in their past also received a diagnosis of Parkinson’s on average two years earlier compared to those who had never had a TBI. 
Lead author Dr. Raquel Gardner,4 staff neurologist at the San Francisco Veterans Affairs (VA) Medical Center and assistant professor in the department of neurology at the University of California, San Francisco (UCSF) told Reuters:5
“This is not the first study to show that even mild traumatic brain injury increases the risk for Parkinson’s disease.6 But we were able to study every single veteran across the U.S. who had been diagnosed at a Veterans Affairs hospital, so this is the highest level of evidence we have so far that this association is real … While on an individual level the actual amount of risk is pretty low, on a population level this could translate into a lot of people being affected [with Parkinson’s].”

Implications for General Population

Coauthor Dr. Kristine Yaffe, professor of psychiatry, neurology and epidemiology at UCSF and the VA, added that these findings have “important implications for the general population” as most of the TBIs veterans suffered actually occurred during their civilian life, not during active service. As of yet, the exact mechanism behind the TBI-Parkinson’s link is unknown. According to Gardner:7,8
“We don’t have brain autopsies, so we don’t know what the underlying biology is. But in Parkinson’s you see abnormal protein accumulation, and there’s some evidence that TBI is linked to deposits of these abnormal proteins … The TBI might directly trigger changes in the brain that weren’t there before. 
The other possibility is that maybe there was a process already happening in the brain and the person might have gotten Parkinson’s disease [anyway] many years later. But the brain injury made the symptoms come on sooner and the diagnosis come sooner. We need more studies to unravel the biology behind what’s going on here.”
That said, the authors stressed that TBI in no way assured the development of Parkinson’s. Ninety-nine percent of veterans with TBIs did not develop Parkinson’s, so individual risk is still very low, even with a TBI. The disease is also strongly dependent on lifestyle factors such as diet and exercise. As noted by Gardner, “If anyone is worried, do a little bit better to live more healthily.”9

Telltale Signs of TBI

Oftentimes the head injury doesn’t seem severe enough to have caused TBI, which is why symptoms are often overlooked. Common telltale signs of head trauma — which need to be addressed — include:
  • Poor concentration and foggy thinking
  • Impaired word recall
  • Mood changes, irritability and emotional dysregulation
  • Lowered ability to focus and follow through on mental tasks
  • Sleep problems or hypersomnolence
Whenever you experience an injury to your head, regardless of how severe it appears to be, it’s important to pay careful attention to any psychological changes that might occur over the coming week or two. Signs such as those mentioned above are indications that your nervous system is on high alert due to an inflammatory cascade, which presents itself as psychological and cognitive downstream effects.
Adults injured at home will be able to self-reflect and notice psychological and neurological changes. Children on the other hand may not be able to do this, and need to be carefully monitored by their parents for changes in behavior and function. If you notice a change in your child within the days or weeks following a head injury, a more comprehensive medical evaluation and workup is strongly recommended to avoid long-term repercussions.

How to Prevent TBIs

There are a number of commonsense strategies that will help prevent the occurrence of a TBI in the first place. This includes the following:10   
• Always wear your seat belt when driving or riding in a car, and never drive while under the influence of alcohol or drugs. This includes many prescription drugs that may alter your ability to drive safely, such as opioid pain killers, which are now responsible for more fatal car crashes than drunken driving. 
Also make sure your child is properly buckled into a child safety seat while driving. Infants should be kept in a rear-facing seat that has been properly secured in the back seat, not the front passenger seat. Children aged 2 to 5 should be in a forward-facing seat in the back seat until they exceed the height or weight limit for the seat. 
Ages 5 to 9 should ride in a front-facing booster seat in the back seat. Never drive with a child aged 12 or under in the front passenger seat, as deployment of the air bag may cause severe injury or death to undersized passengers. 
• Wear a helmet when:
◦ Riding a bicycle, motorcycle or any other motorized vehicle, including off-roading with an all-terrain vehicle
◦ Playing contact sports
◦ Skating or skateboarding
◦ Playing baseball or softball
◦ Horseback riding 
◦ Skiing or snowboarding 
• Safeguard the elderly in your home by:
◦ Removing tripping hazards such as throw rugs and clutter
◦ Using nonslip mats in bathtub and shower
◦ Installing grab bars next to your toilet, tub and shower and handrails along both sides of stairways
◦ Improving lighting
◦ Maintaining a regular physical activity program to maintain or improve strength and balance
• Safeguard children in your home by:
◦ Installing window guards
◦ Using safety gates at top and bottom of stairs
◦ Using nonskid bathmats and nonslip mats in tub and shower
◦ Never leave your child unattended in a highchair 
• Make sure your child’s playground has shock-absorbing material such as hardwood mulch or sand in key areas where falls are likely to occur

Long-Term Effects of Accumulative TBIs

Long-term, chronic traumatic encephalopathy, i.e., the accumulation of low-grade concussions over time, accelerates the process of dementia. If you are genetically predisposed to Alzheimer’s by having one or two ApoE4 alleles and suffer a TBI, your risk of Alzheimer’s increases at least tenfold. Stacked with an inflammatory diet and other lifestyle factors such as lack of exercise and not fasting (which promotes neuroregeneration), the process of neurological degeneration is further exacerbated and accelerated. 
In his book, “The Concussion Repair Manual,” Dr. Dan Engle, provides comprehensive guidance on how to recover from TBIs. I recently interviewed him about this, and if you missed it, you may want to review it now. Engle discusses a variety of healing strategies in his book, including nutritional components that optimize brain function and help repair neurological function in case of injury. I’ll review some of these at the end of this article. 

The Importance of Omega-3 Fats 

Among the most important nutrients for brain health are the animal-based omega-3 fats docosahexaenoic acid (DHA) and eicosapentaenoic acid (EPA). The department of surgery at Oregon Health & Science University now advocates use of omega-3 supplements presurgery, because outcomes are so much better. Animal-based omega-3 has also been shown to protect your brain against damage associated with dementia.  
Omega 3 fats affect cellular health and DNA chiefly by how they influence your cell membranes. It is these cell membran­­­­es that are critical in switching your genes on and off, because cell membranes contain receptors that respond to hormones and other agents, and these are affected by the fatty acids on their surface. 
Your cell membranes contain EPA, DHA and phospholipids, and all help to shuttle molecules into and out of your cells. So, having adequate fatty acids in your system is crucial to keeping your cell membranes working properly. 
DHA is especially important, as it is a structural component of every cell in your body that helps regulate communication within the cell and between cells, and has a profound influence on mitochondrial health. It’s particularly crucial for your brain, as more than 90 percent of the omega-3 fat found in brain tissue is DHA. There are actually specific transporters for DHA in your blood-brain barrier that shuttle these molecules in a very precise way into the cell membranes where they belong. 

The Omega-3 Index Test Is an Important Health Screen 

I believe the omega-3 index test can be an enormously important health screen — regardless of whether you’ve already had a TBI or not, as optimizing your omega-3 level can help cushion the effects of a future head injury. As with vitamin D, getting your level tested is really the best way to customize your dosage to ensure sufficiency, because requirements for omega-3 will vary depending on your lifestyle.
Your intake of fatty fish, for example, and your level of physical activity will play a role. Athletes tend to burn off their omega-3 quite rapidly, as the DHA gets burned as fuel rather than being used as a structural component of their cell membranes. Hence they will need higher dosages. 
Seafood is your best source of DHA and EPA. However, it's important to realize that not all fish contain these fats. Tilapia, for example, contains neither. The fish needs to be harvested from cold water, as this is where the fish richest in omega-3 fats are found. Some of your best options for clean fats are wild-caught Alaskan salmon, sardines and anchovies. 
An excellent alternative, if you do not want to eat fatty fish, is to take a krill oil supplement. I firmly believe krill oil is superior to fish oil. Although both contain EPA and DHA, krill oil is bound to phospholipids that allow these omega-3 fats to travel more efficiently through your bloodstream. Hence, it's more bioavailable.

TBI Treatment Aids

Other helpful interventions for TBIs, which are discussed at depth in Engle’s book, include the following: 
Curcumin
Curcumin, one of the most well studied bioactive ingredients in turmeric, has been shown to have over 160 potentially therapeutic activities. Many of curcumin's benefits are attributed to its ability to quench inflammation, which is a hallmark of most chronic diseases. Importantly, it has the ability to cross your blood-brain barrier and exhibits potent neuroprotective properties, suggesting it may be useful for neurodegenerative disorders. 
Researchers at the University of California recently demonstrated it may have long-term effects on your cognitive function by protecting against brain inflammation.11 Curcumin has also been shown to enhance neurogenesis and improve cognition by increasing levels of brain-derived neurotrophic factor (BDNF).12 Reduced levels of BDNF have in fact been linked to Alzheimer's disease, and correlate with the level of motor impairment in patients with Parkinson’s.13
Hyperbaric oxygen
By saturating your tissues with oxygen, the oxygen is able to get into all of the neuroreparative mechanisms in your entire neurologic system. It accelerates all wound repair processes, be it in peripheral vasculature or in central vasculature, around the nervous system, brain and spinal cord.
An alternative for home use would be Exercising with Oxygen Therapy (EWOT). It’s not as effective as hyperbaric oxygen treatment for neurological recovery because you’re not saturating the tissues with oxygen, just your blood, but you can still benefit if you have a low partial pressure of oxygen (low oxygen in your blood).
Low-light laser therapy (LLLT), also known as photobiomodulation, which can be done using either lasers or light-emitting diodes (LEDs). 
“There are a lot of different studies that show light is beneficial,” Engle says. “When we’re talking about neurologic recovery or building adenosine triphosphate (ATP) production, driving mitochondrial function, there are certain wavelengths that seem to be optimal for that. 
Most of the wavelengths for neurologic recovery are going to be in the near-infrared (810 to 830 nanometers) and far-infrared spectrum. There are some handheld devices that can be used.” Red light in the 660-nanometer frequency is also beneficial, and many technologies will combine red with near- and far-infrared.
Pulsed electromagnetic field therapy (PEMF)
Engle explains, “If we’re optimizing voltage and frequency into the cell, then there are going to be energy thresholds below which disease happens, and above which optimized function happens. PEMF tends to raise the voltage and the energy in the cell, in the system globally, to improve physiologic function.
I use a combination of both low-voltage systems and high-voltage systems. There’s a low-voltage system called a Bio Electromagnetic Energy Regulation (BEMER). There’s a high-voltage system called the Pulse. I found benefits in both … There’s also a subset of pulsed frequencies called transcranial magnetic stimulation, which is more based in magnetic impulse to the brain.”
Transcranial direct current stimulation (TDCS)
TDCS provides a more global stimulation, so while some patients experience good results, others do not, due to lack of specificity. According to Engle, if it’s going to work, you’ll notice results quickly. If no benefit is noticed in the first few sessions, move on to some other therapy.
Electroencephalography (EEG) and neurofeedback are similar technologies of varying complexity. 
“You go into master your ability in real time to see where your brainwave patterns are firing, and then to lock into the necessary thought modalities and internal states to be able to consistently access an alpha state,” Engle explains. Alpha states are indicative of calmness and centeredness. 
“If I can access that and find that place within myself, then I’m starting to generate my own sense of personal empowerment.” The Evoke system is an easy one to use. It involves watching a movie for 20 to 30 minutes. Your focused attention will keep the movie playing. When your attention drifts, it slows down and loses volume.
Cannabidiol (CBD) oil
“CBD is up there with fish oil for neuroreparative support,” Engle says. “Cannabis has two primary therapeutic components; one is tetrahydrocannabidiol (THC) and one is CBD. THC has a psychoactive component. CBD has a neuro-reparative component. 
There seems to be an upregulation effect or an enhanced effect if there’s a little bit of THC with CBD. The CBD to THC ratio will be like 20-to-1. We’ve consistently seen benefit in the neurologic system, whether it was stroke recovery, concussion recovery or seizure and epilepsy support … There seems to be this neurologic repair effect. 
The CBD receptors are globally affiliated with neurologic function throughout the entire brain. When we’re engaging and stimulating those receptors, we see the neurochemical cascade toward repair, regardless of the input, but particularly with concussion. That’s why during the acute phase, if somebody has an injury that is significant, I say, first and foremost, do [these] things: 
1) Lifestyle management. Get quiet. Float if you can. 2) Take fish oil, take CBD, vitamin D and melatonin, particularly if there are issues with sleep. Boost the antioxidants.” CBD may actually be a really potent stimulator of nuclear factor-like 2 (Nrf2) pathway, which stimulates the hermetic production of antioxidants in your body.