The 4 Bad Habits That Cause The Most Falls While Walking
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The risk of falling becomes greater (both in probability and in severity of consequences) as we get older. But, many people who do fall do so for the same reasons, some of which are avoidable. Dr. Doug Weiss has advice based on extensive second-hand experience:
Best foot forward!
If any of these prompt a “surely nobody does that” response, then, good for you to not have that habit, but Dr. Weiss has seen many patients who thusly erred. And if any of these do describe how you walk, then well, you’re not alone—time to fix it, though!
- Walking with Stiff Legs: walking with a hyperextended (straight) knee instead of a slight bend (5-15°) makes it harder to adjust balance, increasing the risk of falls. This can also put extra pressure on the joints, potentially leading to osteoarthritis.
- Crossing Legs While Turning: turning by crossing one leg over the other is a common cause of falls, particularly in the elderly. To avoid this, when turning step first with the foot that is on the side you are going to go. If you have the bad habit, this may feel strange at first, but you will soon adapt.
- Looking Down While Walking: focusing only on the ground directly in front of you can cause you to miss obstacles ahead, leading to falls. Instead, practice “scanning”, alternating between looking down at the ground and looking up to maintain awareness of your surroundings.
- Shuffling Instead of Tandem Walking: shuffling with feet far apart, rather than walking with one foot in front of the other, reduces balance and increases the risk of tripping. Tandem walking, where one foot is placed directly in front of the other, is the safer and more balanced way to walk.
It also helps disguise your numbers.
For more details on all of these, plus visual demonstrations, enjoy:
Click Here If The Embedded Video Doesn’t Load Automatically!
Want to learn more?
You might also like to read:
Fall Special (How To Not Fall, And How To Minimize Injury If You Do) ← this never seems like an urgent thing to learn, but trust us, it’s more fun to read it now, than from your hospital bed later
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Hemp Seeds vs Flax Seeds – Which is Healthier?
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Our Verdict
When comparing hemp seeds to flax seeds, we picked the flax.
Why?
Both are great, but quite differently so! In other words, they both have their advantages, but on balance, we prefer the flax’s advantages.
Part of this come from the way in which they are sold/consumed—hemp seeds must be hulled first, which means two things as a result:
- Flax seeds have much more fiber (about 8x more)
- Hemp seeds have more protein (about 2x more), proportionally, at least ← this is partly because they lost a bunch of weight by losing their fiber to the hulling, so the “per 100g” values of everything else go up, even though the amount per seed didn’t change
Since people’s diets are more commonly deficient in fiber than protein, and also since 8x is better than 2x, we consider this a win for flax.
Of course, many people enjoy hemp or flax specifically for the healthy fatty acids, so how do they stack up in that regard?
- Flax seeds have more omega-3s
- Hemp seeds have more omega-6s
This, for us, is a win for flax too, as the omega-3s are generally what we need more likely to be deficient in. Hemp enthusiasts, however, may argue that the internal balance of omega-3s to omega-6s is closer to an ideal ratio in hemp—but nutrition doesn’t exist in a vacuum, so we have to consider things “as part of a balanced diet” (because if one were trying to just live on hemp seeds, one would die), and most people’s diets are skewed far too far in favor or omega-6 compared to omega-3. So for most people, the higher levels of omega-3s are the more useful.
Want to learn more?
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Protein: How Much Do We Need, Really?
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Mythbusting Protein!
Yesterday, we asked you for your policy on protein consumption. The distribution of responses was as follows:
- A marginal majority (about 55%) voted for “Protein is very important, but we can eat too much of it”
- A large minority (about 35%) voted for “We need lots of protein; the more, the better!”
- A handful (about 4%) voted for “We should go as light on protein as possible”
- A handful (6%) voted for “If we don’t eat protein, our body will create it from other foods”
So, what does the science say?
If we don’t eat protein, our body will create it from other foods: True or False?
Contingently True on an absurd technicality, but for all practical purposes False.
Our body requires 20 amino acids (the building blocks of protein), 9 of which it can’t synthesize and absolutely must get from food. Normally, we get those amino acids from protein in our diet, and we can also supplement them by buying amino acid supplements.
Specifically, we require (per kg of bodyweight) a daily average of:
- Histidine: 10 mg
- Isoleucine: 20 mg
- Leucine: 39 mg
- Lysine: 30 mg
- Methionine: 10.4 mg
- Phenylalanine*: 25 mg
- Threonine: 15 mg
- Tryptophan: 4 mg
- Valine: 26 mg
*combined with the non-essential amino acid tyrosine
Source: Protein and Amino Acid Requirements In Human Nutrition: WHO Technical Report
However, to get the requisite amino acid amounts, without consuming actual protein, would require gargantuan amounts of supplementation (bearing in mind bioavailability will never be 100%, so you’ll always need to take more than it seems), using supplements that will have been made by breaking down proteins anyway.
So unless you live in a laboratory and have access to endless amounts of all of the required amino acids (you can’t miss even one; you will die), and are willing to do that for the sake of proving a point, then you do really need to eat protein.
Your body cannot, for example, simply break down sugar and use it to make the protein you need.
On another technical note… Do bear in mind that many foods that we don’t necessarily think of as being sources of protein, are sources of protein.
Grains and grain products, for example, all contain protein; we just don’t think of them as that because their macronutritional profile is heavily weighted towards carbohydrates.
For that matter, even celery contains protein. How much, you may ask? Almost none! But if something has DNA, it has protein. Which means all plants and animals (at least in their unrefined forms).
So again, to even try to live without protein would very much require living in a laboratory.
We can eat too much protein: True or False?
True. First on an easy technicality; anything in excess is toxic. Even water, or oxygen. But also, in practical terms, there is such a thing as too much protein. The bar is quite high, though:
❝Based on short-term nitrogen balance studies, the Recommended Dietary Allowance of protein for a healthy adult with minimal physical activity is currently 0.8 g protein per kg bodyweight per day❞
❝To meet the functional needs such as promoting skeletal-muscle protein accretion and physical strength, dietary intake of 1.0, 1.3, and 1.6 g protein per kg bodyweight per day is recommended for individuals with minimal, moderate, and intense physical activity, respectively❞
❝Long-term consumption of protein at 2 g per kg bodyweight per day is safe for healthy adults, and the tolerable upper limit is 3.5 g per kg bodyweight per day for well-adapted subjects❞
❝Chronic high protein intake (>2 g per kg bodyweight per day for adults) may result in digestive, renal, and vascular abnormalities and should be avoided❞
Source: Dietary protein intake and human health
To put this into perspective, if you weigh about 160lbs (about 72kg), this would mean eating more than 144g protein per day, which grabbing a calculator means about 560g of lean beef, or 20oz, or 1¼lb.
If you’re eating quarter-pounder burgers though, that’s not usually so lean, so you’d need to eat more than nine quarter-pounder burgers per day to get too much protein.
High protein intake damages the kidneys: True or False?
True if you have kidney damage already; False if you are healthy. See for example:
- Effects of dietary protein restriction on the progression of advanced renal disease in the modification of diet in renal disease study
- A high protein diet has no harmful effects: a one-year crossover study in healthy male athletes
High protein intake increases cancer risk: True or False?
True or False depending on the source of the protein, so functionally false:
- Eating protein from red meat sources has been associated with higher risk for many cancers
- Eating protein from other sources has been associated with lower risk for many cancers
Source: Red Meat Consumption and Mortality Results From 2 Prospective Cohort Studies
High protein intake increase risk of heart disease: True or False?
True or False depending on the source of the protein, so, functionally false:
- Eating protein from red meat sources has been associated with higher risk of heart disease
- Eating protein from other sources has been associated with lower risk of heart disease
Source: Major Dietary Protein Sources and Risk of Coronary Heart Disease in Women
In summary…
Getting a good amount of good quality protein is important to health.
One can get too much, but one would have to go to extremes to do so.
The source of protein matters:
- Red meat is associated with many health risks, but that’s not necessarily the protein’s fault.
- Getting plenty of protein from (ideally: unprocessed) sources such as poultry, fish, and/or plants, is critical to good health.
- Consuming “whole proteins” (that contain all 9 amino acids that we can’t synthesize) are best.
Learn more: Complete proteins vs. incomplete proteins (explanation and examples)
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The Path to a Better Tuberculosis Vaccine Runs Through Montana
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A team of Montana researchers is playing a key role in the development of a more effective vaccine against tuberculosis, an infectious disease that has killed more people than any other.
The BCG (Bacille Calmette-Guérin) vaccine, created in 1921, remains the sole TB vaccine. While it is 40% to 80% effective in young children, its efficacy is very low in adolescents and adults, leading to a worldwide push to create a more powerful vaccine.
One effort is underway at the University of Montana Center for Translational Medicine. The center specializes in improving and creating vaccines by adding what are called novel adjuvants. An adjuvant is a substance included in the vaccine, such as fat molecules or aluminum salts, that enhances the immune response, and novel adjuvants are those that have not yet been used in humans. Scientists are finding that adjuvants make for stronger, more precise, and more durable immunity than antigens, which create antibodies, would alone.
Eliciting specific responses from the immune system and deepening and broadening the response with adjuvants is known as precision vaccination. “It’s not one-size-fits-all,” said Ofer Levy, a professor of pediatrics at Harvard University and the head of the Precision Vaccines Program at Boston Children’s Hospital. “A vaccine might work differently in a newborn versus an older adult and a middle-aged person.”
The ultimate precision vaccine, said Levy, would be lifelong protection from a disease with one jab. “A single-shot protection against influenza or a single-shot protection against covid, that would be the holy grail,” Levy said.
Jay Evans, the director of the University of Montana center and the chief scientific and strategy officer and a co-founder of Inimmune, a privately held biotechnology company in Missoula, said his team has been working on a TB vaccine for 15 years. The private-public partnership is developing vaccines and trying to improve existing vaccines, and he said it’s still five years off before the TB vaccine might be distributed widely.
It has not gone unnoticed at the center that this state-of-the-art vaccine research and production is located in a state that passed one of the nation’s most extreme anti-vaccination laws during the pandemic in 2021. The law prohibits businesses and governments from discriminating against people who aren’t vaccinated against covid-19 or other diseases, effectively banning both public and private employers from requiring workers to get vaccinated against covid or any other disease. A federal judge later ruled that the law cannot be enforced in health care settings, such as hospitals and doctors’ offices.
In mid-March, the Bill & Melinda Gates Medical Research Institute announced it had begun the third and final phase of clinical trials for the new vaccine in seven countries. The trials should take about five years to complete. Research and production are being done in several places, including at a manufacturing facility in Hamilton owned by GSK, a giant pharmaceutical company.
Known as the forgotten pandemic, TB kills up to 1.6 million people a year, mostly in impoverished areas in Asia and Africa, despite its being both preventable and treatable. The U.S. has seen an increase in tuberculosis over the past decade, especially with the influx of migrants, and the number of cases rose by 16% from 2022 to 2023. Tuberculosis is the leading cause of death among people living with HIV, whose risk of contracting a TB infection is 20 times as great as people without HIV.
“TB is a complex pathogen that has been with human beings for ages,” said Alemnew Dagnew, who heads the program for the new vaccine for the Gates Medical Research Institute. “Because it has been with human beings for many years, it has evolved and has a mechanism to escape the immune system. And the immunology of TB is not fully understood.”
The University of Montana Center for Translational Medicine and Inimmune together have 80 employees who specialize in researching a range of adjuvants to understand the specifics of immune responses to different substances. “You have to tailor it like tools in a toolbox towards the pathogen you are vaccinating against,” Evans said. “We have a whole library of adjuvant molecules and formulations.”
Vaccines are made more precise largely by using adjuvants. There are three basic types of natural adjuvants: aluminum salts; squalene, which is made from shark liver; and some kinds of saponins, which are fat molecules. It’s not fully understood how they stimulate the immune system. The center in Missoula has also created and patented a synthetic adjuvant, UM-1098, that drives a specific type of immune response and will be added to new vaccines.
One of the most promising molecules being used to juice up the immune system response to vaccines is a saponin molecule from the bark of the quillay tree, gathered in Chile from trees at least 10 years old. Such molecules were used by Novavax in its covid vaccine and by GSK in its widely used shingles vaccine, Shingrix. These molecules are also a key component in the new tuberculosis vaccine, known as the M72 vaccine.
But there is room for improvement.
“The vaccine shows 50% efficacy, which doesn’t sound like much, but basically there is no effective vaccine currently, so 50% is better than what’s out there,” Evans said. “We’re looking to take what we learned from that vaccine development with additional adjuvants to try and make it even better and move 50% to 80% or more.”
By contrast, measles vaccines are 95% effective.
According to Medscape, around 15 vaccine candidates are being developed to replace the BCG vaccine, and three of them are in phase 3 clinical trials.
One approach Evans’ center is researching to improve the new vaccine’s efficacy is taking a piece of the bacterium that causes TB, synthesizing it, and combining it with the adjuvant QS-21, made from the quillay tree. “It stimulates the immune system in a way that is specific to TB and it drives an immune response that is even closer to what we get from natural infections,” Evans said.
The University of Montana center is researching the treatment of several problems not commonly thought of as treatable with vaccines. They are entering the first phase of clinical trials for a vaccine for allergies, for instance, and first-phase trials for a cancer vaccine. And later this year, clinical trials will begin for vaccines to block the effects of opioids like heroin and fentanyl. The University of Montana received the largest grant in its history, $33 million, for anti-opioid vaccine research. It works by creating an antibody that binds with the drug in the bloodstream, which keeps it from entering the brain and creating the high.
For now, though, the eyes of health care experts around the world are on the trials for the new TB vaccines, which, if they are successful, could help save countless lives in the world’s poorest places.
KFF Health News is a national newsroom that produces in-depth journalism about health issues and is one of the core operating programs at KFF—an independent source of health policy research, polling, and journalism. Learn more about KFF.
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CBD Oil’s Many Benefits
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CBD Oil: What Does The Science Say?
First, a quick legal (and practical) note:
CBD and THC are both derived from the hemp or cannabis plant, but only the latter has euphoriant psychoactive effects, i.e., will get you high. We’re writing here about CBD derived from hemp and not containing THC (thus, will not get you high).
Laws and regulations differ far too much from place to place for us to try to advise here, so please check your own local laws and regulations. And also, while you’re at it, with your doctor and/or pharmacist.
As ever, this newsletter is for purposes of education and enjoyment, and does not constitute any kind of legal (or medical) advice.
With that in mind, onwards to today’s research review…
CBD for Pain Relief
CBD has been popularly touted as a pain relief panacea, and there are a lot of pop-science articles out there “debunking” this, but…
The science seems to back it up. We couldn’t find studies refuting the claim (of CBD as a viable pain relief option). We did, however, find research showing it was good against:
Note that that latter (itself a research review, not a single study, hence covering a lot of bases) describes it matter-of-factly, with no caveats or weasel-words, as:
“CBD, a non-euphoriant, anti-inflammatory analgesic with CB1 receptor antagonist and endocannabinoid modulating effects”
As a quick note: all of the above is about the topical use of CBD oil, not any kind of ingestion
CBD for Anxiety/Depression
There’s a well-cited study with what honestly we think was a bit of a small sample size, but compelling results within that:
A study published in the Brazilian Journal of Psychiatry tested the anxiety levels of 57 men in a simulated public speaking test.
Compared to placebo…
- Those who received 300mg of CBD experienced significantly reduced anxiety during the test.
- Those who received either 150mg or 600mg of CBD experienced more anxiety during the test than the 300mg group
- This means there’s a sweet spot to the dosage
There was also a clinical study that found CBD to have anti-depressant effects.
The methodology was a lot more robust, but the subjects were mice. We can’t have everything in one study, apparently! There is probably a paucity of human volunteers to have their brain slices looked at after tests, though.
Anyway, what makes this study interesting is that it measured quite an assortment of biological markers in the brain, and found that the CBD had a similar physiological effect to the antidepressant imipramine.
CBD for Treating Opioid Addiction
There are a lot of studies for this, both animal and human, but we’d like to put the spotlight on a human study (with the participation of heroin users) that found:
❝Within one week, CBD significantly reduced cravings, anxiety, resting heart rate, and salivary cortisol levels. No serious adverse effects were found.❞
This is groundbreaking because the very thing about heroin is that it’s so addictive and the body rapidly needs more and more of it. You might think “duh”, but most people don’t realize this part:
Heroin is attractive because it offers (and delivers) an immediate guaranteed “downer”, instant relaxation… with none of the bad side effects of, for example, alcohol. No nausea, no hangover, nothing.
The problem is that the body gets tolerant to heroin very quickly, meaning your doses need to get bigger and more frequent to have the same effect.
Before you know it, what seemed like an affordable “self-medication for a stressful life” is very much out of control! Many doctors have personally found this out the hard way.
So, it’s ruinous:
- first to your financial health, as the costs rapidly spiral
- then to your physical health, as you either suffer from withdrawal or eventually overdose
Consequently, heroin is an incredibly easy drug to get hooked onto, and incredibly difficult to get back off.
So CBD offering relief is really a game-changer.
And more…
CBD has been well-studied and found to be effective for a lot of things, more than we could hope to cover in a single edition here.
Some further reading that may interest you includes:
- CBD against Diabetes in mice / in vitro / in humans
- CBD against neurological diseases (in general, in humans)
- CBD against arthritis in mice / in humans
- CBD specifically against the pain of rheumatoid arthritis / of osteoarthritis
Let us know if there’s any of these (or other) conditions you’d like us to look more into the CBD-related research for, because there’s a lot! You can always hit reply to any of our emails, or use the feedback widget at the bottom
Read (and shop, if you want and it’s permitted where you are):
10 Best CBD Oils of 2023, According to the Forbes Health Advisory Board
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Benefits of Different Tropical Fruits
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It’s Q&A Day at 10almonds!
Have a question or a request? You can always hit “reply” to any of our emails, or use the feedback widget at the bottom!
In cases where we’ve already covered something, we might link to what we wrote before, but will always be happy to revisit any of our topics again in the future too—there’s always more to say!
As ever: if the question/request can be answered briefly, we’ll do it here in our Q&A Thursday edition. If not, we’ll make a main feature of it shortly afterwards!
So, no question/request too big or small
❝Would very much like your views of the benefits of different tropical fruits. I do find papaya is excellent for settling the digestion – but keen to know if others have remarkable qualities.❞
Definitely one for a main feature sometime soon! As a bonus while you wait, pineapple has some unique and powerful properties:
❝Its properties include: (1) interference with growth of malignant cells; (2) inhibition of platelet aggregation*; (3) fibrinolytic activity; (4) anti-inflammatory action; (5) skin debridement properties. These biological functions of bromelain, a non-toxic compound, have therapeutic values in modulating: (a) tumor growth; (b) blood coagulation; (c) inflammatory changes; (d) debridement of third degree burns; (e) enhancement of absorption of drugs.❞
*so do be aware of this if you are on blood thinners or otherwise have a bleeding disorder, as you might want to skip the pineapple in those cases!
Source: Bromelain, the enzyme complex of pineapple (Ananas comosus) and its clinical application. An update
Enjoy!
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Is “Extra Virgin” Worth It?
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It’s Q&A Day at 10almonds!
Have a question or a request? We love to hear from you!
In cases where we’ve already covered something, we might link to what we wrote before, but will always be happy to revisit any of our topics again in the future too—there’s always more to say!
As ever: if the question/request can be answered briefly, we’ll do it here in our Q&A Thursday edition. If not, we’ll make a main feature of it shortly afterwards!
So, no question/request too big or small
❝I was wondering, is the health difference important between extra virgin olive oil and regular?❞
Assuming that by “regular” you mean “virgin and still sold as a food product”, then there are health differences, but they’re not huge. Or at least: not nearly so big as the differences between those and other oils.
Virgin olive oil (sometimes simply sold as “olive oil”, with no claims of virginity) has been extracted by the same means as extra virgin olive oil, that is to say: purely mechanical.
The difference is that extra virgin olive oil comes from the first pressing*, so the free fatty acid content is slightly lower (later checked and validated and having to score under a 0.8% limit for “extra virgin” instead of 2% limit for a mere “virgin”).
*Fun fact: in Arabic, extra virgin is called “البكر الممتاز“, literally “the amazing first-born”, because of this feature!
It’s also slightly higher in mono-unsaturated fatty acids, which is a commensurately slight health improvement.
It’s very slightly lower in saturated fats, which is an especially slight health improvement, as the saturated fats in olive oil are amongst the healthiest saturated fats one can consume.
On which fats are which:
The truth about fats: the good, the bad, and the in-between
And our own previous discussion of saturated fats in particular:
Can Saturated Fats Be Healthy?
Probably the strongest extra health-benefit of extra virgin is that while that first pressing squeezes out oil with the lowest free fatty acid content, it squeezes out oil with the highest polyphenol content, along with other phytonutrients:
If you enjoy olive oil, then springing for extra virgin is worth it if that’s not financially onerous, both for health reasons and taste.
However, if mere “virgin” is what’s available, it’s no big deal to have that instead; it still has a very similar nutritional profile, and most of the same benefits.
Don’t settle for less than “virgin”, though.
While some virgin olive oils aren’t marked as such, if it says “refined” or “blended”, then skip it. These will have been extracted by chemical means and/or blended with completely different oils (e.g. canola, which has a very different nutritional profile), and sometimes with a dash of virgin or extra virgin, for the taste and/or so that they can claim in big writing on the label something like:
a blend of
EXTRA VIRGIN OLIVE OIL
and other oils…despite having only a tiny amount of extra virgin olive oil in it.
Different places have different regulations about what labels can claim.
The main countries that produce olives (and the EU, which contains and/or directly trades with those) have this set of rules:
International Olive Council: Designations and definitions of Olive Oils
…which must be abided by or marketers face heavy fines and sanctions.
In the US, the USDA has its own set of rules based on the above:
USDA | Olive Oil and Olive-Pomace Oil Grades and Standards
…which are voluntary (not protected by law), and marketers can pay to have their goods certified if they want.
So if you’re in the US, look for the USDA certification or it really could be:
- What the USDA calls “US virgin olive oil not fit for human consumption”, which in the IOC is called “lamp oil”*
- crude pomace-oil (oil made from the last bit of olive paste and then chemically treated)
- canola oil with a dash of olive oil
- anything yellow and oily, really
*This technically is virgin olive oil insofar as it was mechanically extracted, but with defects that prevent it from being sold as such, such as having a free fatty acid content above the cut-off, or just a bad taste/smell, or some sort of contamination.
See also: Potential Health Benefits of Olive Oil and Plant Polyphenols
(the above paper has a handy infographic if you scroll down just a little)
Where can I get some?
Your local supermarket, probably, but if you’d like to get some online, here’s an example product on Amazon for your convenience
Enjoy!
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