Almond Butter vs Cashew Butter – Which is Healthier?
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Our Verdict
When comparing almond butter to cashew butter, we picked the almond.
Why?
They’re both good! But, our inherent pro-almond bias notwithstanding, the almond butter does have a slightly better spread of nutrients.
In terms of macros, almond butter has more protein while cashew butter has more carbs, and of their fats, they’re broadly healthy in both cases, but almond butter does have less saturated fat.
In the category of vitamins, both are good sources of vitamin E, but almond butter has about 4x more. The rest of the vitamins they both contain aren’t too dissimilar, aside from some different weightings of various different B-vitamins, that pretty much balance out across the two nut butters. The only noteworthy point in cashew butter’s favor here is that it is a good source of vitamin K, which almond butter doesn’t have.
When it comes to minerals, both are good sources of lots of minerals, but most significantly, almond butter has a lot more calcium and quite a bit more potassium. In contrast, cashew butter has more selenium.
In short, they’re both great, but almond butter has more relative points in its favor than cashew butter.
Here are the two we depicted today, by the way, in case you’d like to try them:
Want to learn more?
You might like to read:
Why You Should Diversify Your Nuts
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Not quite an introvert or an extrovert? Maybe you’re an ambivert
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Our personalities are generally thought to consist of five primary factors: openness to experience, conscientiousness, extroversion, agreeableness and neuroticism, with each of us ranking low to high for each.
Those who rank high in extroversion, known as extroverts, typically focus on their external world. They tend to be more optimistic, recharge by socialising and enjoy social interaction.
On the other end of the spectrum, introverts are more likely to be quiet, deep thinkers, who recharge by being alone and learn by observing (but aren’t necessarily shy).
But what if you’re neither an introvert or extrovert – or you’re a bit of both? Another category might fit better: ambiverts. They’re the middle of the spectrum and are also called “social introverts”.
What exactly is an ambivert?
The term ambivert emerged in 1923. While it was not initially embraced as part of the introvert-extrovert spectrum, more recent research suggests ambiverts are a distinct category.
Ambiverts exhibit traits of both extroverts and introverts, adapting their behaviour based on the situation. It may be that they socialise well but need solitude and rest to recharge, and they intuitively know when to do this.
Ambiverts seems to have the following characteristics:
- good communication skills, as a listener and speaker
- ability to be a peacemaker if conflict occurs
- leadership and negotiation skills, especially in teams
- compassion and understanding for others.
Some research suggests ambiverts make up a significant portion of the population, with about two-thirds of people falling into this category.
What makes someone an ambivert?
Personality is thought to be 50% inherited, with the remaining being influenced by environmental factors and individual experiences.
Emerging research has found physical locations of genes on chromosomes closely aligned with extroversion-introversion traits.
So, chances are, if you are a blend of the two styles as an ambivert, one of your parents may be too.
What do ambiverts tend to be good at?
One area of research focus in recent decades has been personality type and job satisfaction. One study examined 340 introverts, extroverts and ambiverts in sales careers.
It has always been thought extroverts were more successful with sales. However, the author found ambiverts were more influential and successful.
They may have a sales advantage because of their ability to read the situation and modify their behaviour if they notice a customer is not interested, as they’re able to reflect and adapt.
Ambiverts stress less than introverts
Generally, people lower in extroversion have higher stress levels. One study found introverts experience more stress than both ambiverts and extroverts.
It may be that highly sensitive or introverted individuals are more susceptible to worry and stress due to being more perfectionistic.
Ambiverts are adept at knowing when to be outgoing and when to be reflective, showcasing a high degree of situational awareness. This may contribute to their overall wellbeing because of how they handle stress.
What do ambiverts tend to struggle with?
Ambiverts may overextend themselves attempting to conform or fit in with many social settings. This is termed “overadaptation” and may force ambiverts to feel uncomfortable and strained, ultimately resulting in stress or burnout.
But personality traits aren’t fixed
Regardless of where you sit on the scale of introversion through to extroversion, the reality is it may not be fixed. Different situations may be more comfortable for introverts to be social, and extroverts may be content with quieter moments.
And there are also four other key personality traits – openness to experience, conscientiousness, agreeableness and neuroticism – which we all possess in varying levels, and are expressed in different ways, alongside our levels of extroversion.
There is also evidence our personality traits can change throughout our life spans are indeed open to change.
Peta Stapleton, Associate Professor in Psychology, Bond University
This article is republished from The Conversation under a Creative Commons license. Read the original article.
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Is stress turning my hair grey?
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When we start to go grey depends a lot on genetics.
Your first grey hairs usually appear anywhere between your twenties and fifties. For men, grey hairs normally start at the temples and sideburns. Women tend to start greying on the hairline, especially at the front.
The most rapid greying usually happens between ages 50 and 60. But does anything we do speed up the process? And is there anything we can do to slow it down?
You’ve probably heard that plucking, dyeing and stress can make your hair go grey – and that redheads don’t. Here’s what the science says.
What gives hair its colour?
Each strand of hair is produced by a hair follicle, a tunnel-like opening in your skin. Follicles contain two different kinds of stem cells:
- keratinocytes, which produce keratin, the protein that makes and regenerates hair strands
- melanocytes, which produce melanin, the pigment that colours your hair and skin.
There are two main types of melanin that determine hair colour. Eumelanin is a black-brown pigment and pheomelanin is a red-yellow pigment.
The amount of the different pigments determines hair colour. Black and brown hair has mostly eumelanin, red hair has the most pheomelanin, and blonde hair has just a small amount of both.
So what makes our hair turn grey?
As we age, it’s normal for cells to become less active. In the hair follicle, this means stem cells produce less melanin – turning our hair grey – and less keratin, causing hair thinning and loss.
As less melanin is produced, there is less pigment to give the hair its colour. Grey hair has very little melanin, while white hair has none left.
Unpigmented hair looks grey, white or silver because light reflects off the keratin, which is pale yellow.
Grey hair is thicker, coarser and stiffer than hair with pigment. This is because the shape of the hair follicle becomes irregular as the stem cells change with age.
Interestingly, grey hair also grows faster than pigmented hair, but it uses more energy in the process.
Can stress turn our hair grey?
Yes, stress can cause your hair to turn grey. This happens when oxidative stress damages hair follicles and stem cells and stops them producing melanin.
Oxidative stress is an imbalance of too many damaging free radical chemicals and not enough protective antioxidant chemicals in the body. It can be caused by psychological or emotional stress as well as autoimmune diseases.
Environmental factors such as exposure to UV and pollution, as well as smoking and some drugs, can also play a role.
Melanocytes are more susceptible to damage than keratinocytes because of the complex steps in melanin production. This explains why ageing and stress usually cause hair greying before hair loss.
Scientists have been able to link less pigmented sections of a hair strand to stressful events in a person’s life. In younger people, whose stems cells still produced melanin, colour returned to the hair after the stressful event passed.
4 popular ideas about grey hair – and what science says
1. Does plucking a grey hair make more grow back in its place?
No. When you pluck a hair, you might notice a small bulb at the end that was attached to your scalp. This is the root. It grows from the hair follicle.
Plucking a hair pulls the root out of the follicle. But the follicle itself is the opening in your skin and can’t be plucked out. Each hair follicle can only grow a single hair.
It’s possible frequent plucking could make your hair grey earlier, if the cells that produce melanin are damaged or exhausted from too much regrowth.
2. Can my hair can turn grey overnight?
Legend says Marie Antoinette’s hair went completely white the night before the French queen faced the guillotine – but this is a myth.
Melanin in hair strands is chemically stable, meaning it can’t transform instantly.
Acute psychological stress does rapidly deplete melanocyte stem cells in mice. But the effect doesn’t show up immediately. Instead, grey hair becomes visible as the strand grows – at a rate of about 1 cm per month.
Not all hair is in the growing phase at any one time, meaning it can’t all go grey at the same time.
3. Will dyeing make my hair go grey faster?
This depends on the dye.
Temporary and semi-permanent dyes should not cause early greying because they just coat the hair strand without changing its structure. But permanent products cause a chemical reaction with the hair, using an oxidising agent such as hydrogen peroxide.
Accumulation of hydrogen peroxide and other hair dye chemicals in the hair follicle can damage melanocytes and keratinocytes, which can cause greying and hair loss.
4. Is it true redheads don’t go grey?
People with red hair also lose melanin as they age, but differently to those with black or brown hair.
This is because the red-yellow and black-brown pigments are chemically different.
Producing the brown-black pigment eumelanin is more complex and takes more energy, making it more susceptible to damage.
Producing the red-yellow pigment (pheomelanin) causes less oxidative stress, and is more simple. This means it is easier for stem cells to continue to produce pheomelanin, even as they reduce their activity with ageing.
With ageing, red hair tends to fade into strawberry blonde and silvery-white. Grey colour is due to less eumelanin activity, so is more common in those with black and brown hair.
Your genetics determine when you’ll start going grey. But you may be able to avoid premature greying by staying healthy, reducing stress and avoiding smoking, too much alcohol and UV exposure.
Eating a healthy diet may also help because vitamin B12, copper, iron, calcium and zinc all influence melanin production and hair pigmentation.
Theresa Larkin, Associate Professor of Medical Sciences, University of Wollongong
This article is republished from The Conversation under a Creative Commons license. Read the original article.
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New research suggests intermittent fasting increases the risk of dying from heart disease. But the evidence is mixed
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Kaitlin Day, RMIT University and Sharayah Carter, RMIT University
Intermittent fasting has gained popularity in recent years as a dietary approach with potential health benefits. So you might have been surprised to see headlines last week suggesting the practice could increase a person’s risk of death from heart disease.
The news stories were based on recent research which found a link between time-restricted eating, a form of intermittent fasting, and an increased risk of death from cardiovascular disease, or heart disease.
So what can we make of these findings? And how do they measure up with what else we know about intermittent fasting and heart disease?
The study in question
The research was presented as a scientific poster at an American Heart Association conference last week. The full study hasn’t yet been published in a peer-reviewed journal.
The researchers used data from the National Health and Nutrition Examination Survey (NHANES), a long-running survey that collects information from a large number of people in the United States.
This type of research, known as observational research, involves analysing large groups of people to identify relationships between lifestyle factors and disease. The study covered a 15-year period.
It showed people who ate their meals within an eight-hour window faced a 91% increased risk of dying from heart disease compared to those spreading their meals over 12 to 16 hours. When we look more closely at the data, it suggests 7.5% of those who ate within eight hours died from heart disease during the study, compared to 3.6% of those who ate across 12 to 16 hours.
We don’t know if the authors controlled for other factors that can influence health, such as body weight, medication use or diet quality. It’s likely some of these questions will be answered once the full details of the study are published.
It’s also worth noting that participants may have eaten during a shorter window for a range of reasons – not necessarily because they were intentionally following a time-restricted diet. For example, they may have had a poor appetite due to illness, which could have also influenced the results.
Other research
Although this research may have a number of limitations, its findings aren’t entirely unique. They align with several other published studies using the NHANES data set.
For example, one study showed eating over a longer period of time reduced the risk of death from heart disease by 64% in people with heart failure.
Another study in people with diabetes showed those who ate more frequently had a lower risk of death from heart disease.
A recent study found an overnight fast shorter than ten hours and longer than 14 hours increased the risk dying from of heart disease. This suggests too short a fast could also be a problem.
But I thought intermittent fasting was healthy?
There are conflicting results about intermittent fasting in the scientific literature, partly due to the different types of intermittent fasting.
There’s time restricted eating, which limits eating to a period of time each day, and which the current study looks at. There are also different patterns of fast and feed days, such as the well-known 5:2 diet, where on fast days people generally consume about 25% of their energy needs, while on feed days there is no restriction on food intake.
Despite these different fasting patterns, systematic reviews of randomised controlled trials (RCTs) consistently demonstrate benefits for intermittent fasting in terms of weight loss and heart disease risk factors (for example, blood pressure and cholesterol levels).
RCTs indicate intermittent fasting yields comparable improvements in these areas to other dietary interventions, such as daily moderate energy restriction.
So why do we see such different results?
RCTs directly compare two conditions, such as intermittent fasting versus daily energy restriction, and control for a range of factors that could affect outcomes. So they offer insights into causal relationships we can’t get through observational studies alone.
However, they often focus on specific groups and short-term outcomes. On average, these studies follow participants for around 12 months, leaving long-term effects unknown.
While observational research provides valuable insights into population-level trends over longer periods, it relies on self-reporting and cannot demonstrate cause and effect.
Relying on people to accurately report their own eating habits is tricky, as they may have difficulty remembering what and when they ate. This is a long-standing issue in observational studies and makes relying only on these types of studies to help us understand the relationship between diet and disease challenging.
It’s likely the relationship between eating timing and health is more complex than simply eating more or less regularly. Our bodies are controlled by a group of internal clocks (our circadian rhythm), and when our behaviour doesn’t align with these clocks, such as when we eat at unusual times, our bodies can have trouble managing this.
So, is intermittent fasting safe?
There’s no simple answer to this question. RCTs have shown it appears a safe option for weight loss in the short term.
However, people in the NHANES dataset who eat within a limited period of the day appear to be at higher risk of dying from heart disease. Of course, many other factors could be causing them to eat in this way, and influence the results.
When faced with conflicting data, it’s generally agreed among scientists that RCTs provide a higher level of evidence. There are too many unknowns to accept the conclusions of an epidemiological study like this one without asking questions. Unsurprisingly, it has been subject to criticism.
That said, to gain a better understanding of the long-term safety of intermittent fasting, we need to be able follow up individuals in these RCTs over five or ten years.
In the meantime, if you’re interested in trying intermittent fasting, you should speak to a health professional first.
Kaitlin Day, Lecturer in Human Nutrition, RMIT University and Sharayah Carter, Lecturer Nutrition and Dietetics, RMIT University
This article is republished from The Conversation under a Creative Commons license. Read the original article.
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Celery vs Lettuce – Which is Healthier?
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Our Verdict
When comparing celery to lettuce, we picked the lettuce.
Why?
Let us consider the macros first: lettuce has 2x the protein, but of course the numbers are tiny and probably nobody is eating this for the protein. Both of these salad items are roughly comparable in terms of carbs and fiber, being both mostly water with just enough other stuff to hold their shape. Nominally this section is a slight win for lettuce on account of the protein, but in realistic practical terms, it’s a tie.
In terms of vitamins, celery has more of vitamins B5 and E, while lettuce has more of vitamins A, B1, B2, B3, B6, B7, B9, C, K, and choline. An easy win for lettuce here.
In the category of minerals, celery has more calcium, copper, and potassium, while lettuce has more iron, magnesium, manganese, phosphorus, potassium, selenium, and zinc. So, a fair win for lettuce.
Adding up the sections makes for an overall win for lettuce; of course, enjoy both, though!
Want to learn more?
You might like to read:
Why You’re Probably Not Getting Enough Fiber (And How To Fix It)
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Ageless – by Dr. Andrew Steele
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So, yet another book with “The new science of…” in the title; does this one deliver new science?
Actually, yes, this time! The author was originally a physicist before deciding that aging was the number one problem that needed solving, and switched tracks to computational biology, and pioneered a lot of research, some of the fruits of which can be found in this book, in amongst a more general history of the (very young!) field of biogerontology.
Downside: most of this is not very practical for the lay reader; most of it is explanations of how things happen on a cellular and/or genetic level, and how we learned that. A lot also pertains to what we can learn from animals that either age very slowly, or are biologically immortal (in other words, they can still be killed, but they don’t age and won’t die of anything age-related), or are immune to cancer—and how we might borrow those genes for gene therapy.
However, there are also chapters on such things as “running repairs”, “reprogramming aging”, and “how to live long enough to live even longer”.
The style is conversational pop science; in the prose, he simply states things without reference, but at the back, there are 40 pages of bibliography, indexed in the order in which they occurred and prefaced with the statement that he’s referencing in each case. It’s an odd way to do citations, but it works comfortably enough.
Bottom line: if you’d like to understand aging on the cellular level, and how we know what we know and what the likely future possibilities are, then this is a great book; it’s also simply very enjoyable to read, assuming you have an interest in the topic (as this reviewer does).
Click here to check out Ageless, and understand the science of getting older without getting old!
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Coffee & Your Gut
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Coffee, in moderation, is generally considered a healthful drink—speaking for the drink itself, at least! Because the same cannot be said for added sugar, various sorts of creamers, or iced caramelatte mocha frappucino dessert-style drinks:
The Bitter Truth About Coffee (or is it?)
Caffeine, too, broadly has more pros than cons (again, in moderation):
Caffeine: Cognitive Enhancer Or Brain-Wrecker?
Some people will be concerned about coffee and the heart. Assuming you don’t have a caffeine sensitivity (or you do but you drink decaf), it is heart-neutral in moderation, though there are some ways of preparing it that are better than others:
Make Your Coffee Heart-Healthier!
So, what about coffee and the gut?
The bacteria who enjoy a good coffee
Amongst our trillions of tiny friends, allies, associates, and enemies-on-the-inside, which ones like coffee, and what kind of coffee do they prefer?
A big (n=35,214) international multicohort analysis examined the associations between coffee consumption and very many different gut microbial species, and found:
115 species were positively associated with coffee consumption, mostly of the kind considered “friendly”, including ones often included in probiotic supplements, such as various Bifidobacterium and Lactobacillus species.
The kind that was most strongly associated with coffee consumption, however, was Lawsonibacter asaccharolyticus, a helpful little beast who converts chlorogenic acid (one of the main polyphenols in coffee) into caffeic acid, quinic acid, and various other metabolites that we can use.
More specifically: moderate coffee-drinkers, defined as drinking 1–3 cups per day, enjoyed a 300–400% increase in L. asaccharolyticus, while high coffee-drinkers (no, not that kind of high), defined as drinking 4 or more cups of coffee per day, enjoyed a 400–800% increase, compared to “never/rarely” coffee-drinkers (defined as drinking 2 or fewer cups per month).
Click here to see more data from the study, in a helpful infographic
Things that did not affect the outcome:
- The coffee-making method—it seems the bacteria are not fussy in this regard, as espresso or brewed, and even instant, yielded the same gut microbiome benefits
- The caffeine content—as both caffeinated and decaffeinated yielded the same gut microbiome benefits
You can read the paper itself in full for here:
Want to enjoy coffee, but not keen on the effects of caffeine or the taste of decaffeinated?
Taking l-theanine alongside coffee flattens the curve of caffeine metabolism, and means one can get the benefits without unwanted jitteriness:
Enjoy!
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