7 Days Of Celery Juice: What’s The Verdict?
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Laura “Try” tries many popular trends, and reports on the benefits (or problems, or both). In this case, it’s 7 days of celery juice… Not as a fast, though, i.e. she doesn’t just have celery juice for 7 days, but rather, it’s how she kicks off each morning, with half a liter (16oz) on an empty stomach.
What she found
First, she bought a masticating juicer and organic celery. So, those are expenses to consider, especially the one-off expense of the juicer, and the ongoing expense of organic celery—estimated $90/month).
In terms of taste, she was surprised it wasn’t as bitter as expected, but from the second day onwards, she did use the juicer’s filter to remove the frothy sludge, and she also switched to juicing only the stalks, not the leaves—which are more bitter.
10almonds note: the leaves are more bitter because that’s where the polyphenols are more densely concentrated. The leaves are better for you than the stalks. Enjoy the leaves. Really: if you chop them finely you can use them as herbs in your cooking, and if you’re making a salad, just chop them into that too.
The reason she picked the quantity of half a liter is because this is what she found recommended to coat the stomach lining—on the promise of increased stomach acid production, reduced bacteria overgrowth, as well as antiviral, antifungal, and anti-inflammatory properties. As she’s just one woman without a personal lab, she couldn’t test and thus verify any of these though—but she did still have benefits to report:
She did experience clearer skin, more energy, and better sleep after a few days.
Ultimately, she decided to continue to do it just at the weekends, due to its positive effects, despite the cost and time consumption.
For more personal insights, enjoy:
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Want to learn more?
You might also like to read:
Enjoy Bitter Foods For Your Heart & Brain
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We’re the ‘allergy capital of the world’. But we don’t know why food allergies are so common in Australian children
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Australia has often been called the “allergy capital of the world”.
An estimated one in ten Australian children develop a food allergy in their first 12 months of life. Research has previously suggested food allergies are more common in infants in Australia than infants living in Europe, the United States or Asia.
So why are food allergies so common in Australia? We don’t know exactly – but local researchers are making progress in understanding childhood allergies all the time.
What causes food allergies?
There are many different types of reactions to foods. When we refer to food allergies in this article, we’re talking about something called IgE-mediated food allergy. This type of allergy is caused by an immune response to a particular food.
Reactions can occur within minutes of eating the food and may include swelling of the face, lips or eyes, “hives” or welts on the skin, and vomiting. Signs of a severe allergic reaction (anaphylaxis) include difficulty breathing, swelling of the tongue, swelling in the throat, wheeze or persistent cough, difficulty talking or a hoarse voice, and persistent dizziness or collapse.
Recent results from Australia’s large, long-running food allergy study, HealthNuts, show one in ten one-year-olds have a food allergy, while around six in 100 children have a food allergy at age ten.
In Australia, the most common allergy-causing foods include eggs, peanuts, cow’s milk, shellfish (for example, prawn and lobster), fish, tree nuts (for example, walnuts and cashews), soybeans and wheat.
Allergies to foods like eggs, peanuts and cow’s milk often present for the first time in infancy, while allergies to fish and shellfish may be more common later in life. While most children will outgrow their allergies to eggs and milk, allergy to peanuts is more likely to be lifelong.
Findings from HealthNuts showed around three in ten children grew out of their peanut allergy by age six, compared to nine in ten children with an allergy to egg.
Are food allergies becoming more common?
Food allergies seem to have become more common in many countries around the world over recent decades. The exact timing of this increase is not clear, because in most countries food allergies were not well measured 40 or 50 years ago.
We don’t know exactly why food allergies are so common in Australia, or why we’re seeing a rise around the world, despite extensive research.
But possible reasons for rising allergies around the world include changes in the diets of mothers and infants and increasing sanitisation, leading to fewer infections as well as less exposure to “good” bacteria. In Australia, factors such as increasing vitamin D deficiency among infants and high levels of migration to the country could play a role.
In several Australian studies, children born in Australia to parents who were born in Asia have higher rates of food allergies compared to non-Asian children. On the other hand, children who were born in Asia and later migrated to Australia appear to have a lower risk of nut allergies.
Meanwhile, studies have shown that having pet dogs and siblings as a young child may reduce the risk of food allergies. This might be because having pet dogs and siblings increases contact with a range of bacteria and other organisms.
This evidence suggests that both genetics and environment play a role in the development of food allergies.
We also know that infants with eczema are more likely to develop a food allergy, and trials are underway to see whether this link can be broken.
Can I do anything to prevent food allergies in my kids?
One of the questions we are asked most often by parents is “can we do anything to prevent food allergies?”.
We now know introducing peanuts and eggs from around six months of age makes it less likely that an infant will develop an allergy to these foods. The Australasian Society of Clinical Immunology and Allergy introduced guidelines recommending giving common allergy-causing foods including peanut and egg in the first year of life in 2016.
Our research has shown this advice had excellent uptake and may have slowed the rise in food allergies in Australia. There was no increase in peanut allergies between 2007–11 to 2018–19.
Introducing other common allergy-causing foods in the first year of life may also be helpful, although the evidence for this is not as strong compared with peanuts and eggs.
What next?
Unfortunately, some infants will develop food allergies even when the relevant foods are introduced in the first year of life. Managing food allergies can be a significant burden for children and families.
Several Australian trials are currently underway testing new strategies to prevent food allergies. A large trial, soon to be completed, is testing whether vitamin D supplements in infants reduce the risk of food allergies.
Another trial is testing whether the amount of eggs and peanuts a mother eats during pregnancy and breastfeeding has an influence on whether or not her baby will develop food allergies.
For most people with food allergies, avoidance of their known allergens remains the standard of care. Oral immunotherapy, which involves gradually increasing amounts of food allergen given under medical supervision, is beginning to be offered in some facilities around Australia. However, current oral immunotherapy methods have potential side effects (including allergic reactions), can involve high time commitment and cost, and don’t cure food allergies.
There is hope on the horizon for new food allergy treatments. Multiple clinical trials are underway around Australia aiming to develop safer and more effective treatments for people with food allergies.
Jennifer Koplin, Group Leader, Childhood Allergy & Epidemiology, The University of Queensland and Desalegn Markos Shifti, Postdoctoral Research Fellow, Child Health Research Centre, Faculty of Medicine, The University of Queensland
This article is republished from The Conversation under a Creative Commons license. Read the original article.
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The Disordered Mind – by Dr. Eric Kandel
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We don’t generally include author bios in these reviews, but it’s worth mentioning that Dr. Kandel won the Nobel Prize in Physiology/Medicine, for studies related to the topics in this book.
The premise in this book is as per the subtitle: what unusual brains tell us about ourselves. He assumes that the reader has a “usual” brain, but if you don’t, then all is not lost, and in fact he probably talks about your brain in the book too.
Examining the brains of people with conditions ranging from autism to Alzheimer’s, schizophrenia to Parkinson’s, or even such common things as depression and anxiety and addiction, tells us a lot about what in our brain (anatomically and physiologically) is responsible for what, and how those things can be thrown out of balance.
By inference, that also tells us how to keep things from being thrown out of balance. Even if the genetic deck is stacked against you, there are still things that can be done to avoid actual disease. After all, famously, “genes load the gun, but lifestyle pulls the trigger”.
Dr. Kandel writes in a clear and lucid fashion, such that even the lay reader can quite comfortably learn about such things as prion-folding and inhibitory neurons and repressed transcription factors and more.
Bottom line: if you’d like to understand more about what goes wrong and how and why and what it means for your so-far-so-good healthy brain, this is the book for that.
Click here to check out The Disordered Mind, and understand more!
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Wakefulness, Cognitive Enhancement, AND Improved Mood?
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Old Drug, New Tricks?
Modafinil (also known by brand names including Modalert and Provigil) is a dopamine uptake inhibitor.
What does that mean? It means it won’t put any extra dopamine in your brain, but it will slow down the rate at which your brain removes naturally-occuring dopamine.
The result is that your brain will get to make more use of the dopamine it does have.
(dopamine is a neutrotransmitter that allows you to feel wakeful and happy, and perform complex cognitive tasks)
Modafinil is prescribed for treatment of excessive daytime sleepiness. Often that’s caused by shift work sleep disorder, sleep apnea, restless leg syndrome, or narcolepsy.
Read: Overview of the Clinical Uses, Pharmacology, and Safety of Modafinil
Many studies done on humans (rather than rats) have been military experiments to reduce the effects of sleep deprivation:
Click Here To See A Military Study On Modafinil!
They’ve found modafinil to be helpful, and more effective and more long-lasting than caffeine, without the same “crash” later. This is for two reasons:
1) while caffeine works by blocking adenosine (so you don’t feel how tired you are) and by constricting blood vessels (so you feel more ready-for-action), modafinil works by allowing your brain to accumulate more dopamine (so you’re genuinely more wakeful, and you get to keep the dopamine)
2) the biological half-life of modafinil is 12–15 hours, as opposed to 4–8 hours* for caffeine.
*Note: a lot of sources quote 5–6 hours for caffeine, but this average is misleading. In reality, we are each genetically predetermined to be either a fast caffeine metabolizer (nearer 4 hours) or a slow caffeine metabolizer (nearer 8 hours).
What’s a biological half-life (also called: elimination half-life)?
A substance’s biological half-life is the time it takes for the amount in the body to be reduced by exactly half.
For example: Let’s say you’re a fast caffeine metabolizer and you have a double-espresso (containing 100mg caffeine) at 8am.
By midday, you’ll have 50mg of caffeine left in your body. So far, so simple.
By 4pm you might expect it to be gone, but instead you have 25mg remaining (because the amount halves every four hours).
By 8pm, you have 12.5mg remaining.
When midnight comes and you’re tucking yourself into bed, you still have 6.25mg of caffeine remaining from your morning coffee!
Use as a nootropic
Many healthy people who are not sleep-deprived use modafinil “off-label” as a nootropic (i.e., a cognitive enhancer).
Read: Modafinil for cognitive neuroenhancement in healthy non-sleep-deprived subjects: A systematic review
Important Note: modafinil is prescription-controlled, and only FDA-approved for sleep disorders.
To get around this, a lot of perfectly healthy biohackers describe the symptoms of sleep pattern disorder to their doctor, to get a prescription.
We do not recommend lying to your healthcare provider, and nor do we recommend turning to the online “grey market”.
Such websites often use anonymized private doctors to prescribe on an “informed consent” basis, rather than making a full examination. Those websites then dispense the prescribed medicines directly to the patient with no further questions asked (i.e. very questionable practices).
Caveat emptor!
A new mood-brightener?
Modafinil was recently tested head-to-head against Citalapram for the treatment of depression, and scored well:
See its head-to-head scores here!
How does it work? Modafinil does for dopamine what a lot of anti-depressants do for serotonin. Both dopamine and serotonin promote happiness and wakefulness.
This is very promising, especially as modafinil (in most people, at least) has fewer unwanted side-effects than a lot of common anti-depressant medications.
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ADHD medication – can you take it long term? What are the risks and do benefits continue?
10almonds is reader-supported. We may, at no cost to you, receive a portion of sales if you purchase a product through a link in this article.
Attention deficit hyperactivity disorder (ADHD) is a condition that can affect all stages of life. Medication is not the only treatment, but it is often the treatment that can make the most obvious difference to a person who has difficulties focusing attention, sitting still or not acting on impulse.
But what happens once you’ve found the medication that works for you or your child? Do you just keep taking it forever? Here’s what to consider.
What are ADHD medications?
The mainstay of medication for ADHD is stimulants. These include methylphenidate (with brand names Ritalin, Concerta) and dexamfetamine. There is also lisdexamfetamine (branded Vyvanse), a “prodrug” of dexamfetamine (it has a protein molecule attached, which is removed in the body to release dexamfetamine).
There are also non-stimulants, in particular atomoxetine and guanfacine, which are used less often but can also be highly effective. Non-stimulants can be prescribed by GPs but this may not always be covered by the Pharmaceutical Benefits Scheme and could cost more.
How stimulants work
Some stimulants prescribed for ADHD are “short acting”. This means the effect comes on after around 20 minutes and lasts around four hours.
Longer-acting stimulants give a longer-lasting effect, usually by releasing medication more slowly. The choice between the two will be guided by whether the person wants to take medication once a day or prefers to target the medication effect to specific times or tasks.
For the stimulants (with the possible exception of lisdexamfetamine) there is very little carry-over effect to the next day. This means the symptoms of ADHD may be very obvious until the first dose of the morning takes effect.
One of the main aims of treatment is the person with ADHD should live their best life and achieve their goals. In young children it is the parents who have to consider the risks and benefits on behalf of the child. As children mature, their role in decision making increases.
What about side effects?
The most consistent side effects of the stimulants are they suppress appetite, resulting in weight loss. In children this is associated with temporary slowing of the growth rate and perhaps a slight delay in pubertal development. They can also increase the heart rate and may cause a rise in blood pressure. Stimulants often cause insomnia.
These changes are largely reversible on stopping medication. However, there is concern the small rises in blood pressure could accelerate the rate of heart disease, so people who take medication over a number of years might have heart attacks or strokes slightly sooner than would have happened otherwise.
This does not mean older adults should not have their ADHD treated. Rather, they should be aware of the potential risks so they can make an informed decision. They should also make sure high blood pressure and attacks of chest pain are taken seriously.
Stimulants can be associated with stomach ache or headache. These effects may lessen over time or with a reduction in dose. While there have been reports about stimulants being misused by students, research on the risks of long-term prescription stimulant dependence is lacking.
Will medication be needed long term?
Although ADHD can affect a person’s functioning at all stages of their life, most people stop medication within the first two years.
People may stop taking it because they don’t like the way it makes them feel, or don’t like taking medication at all. Their short period on medication may have helped them develop a better understanding of themselves and how best to manage their ADHD.
In teenagers the medication may lose its effectiveness as they outgrow their dose and so they stop taking it. But this should be differentiated from tolerance, when the dose becomes less effective and there are only temporary improvements with dose increases.
Tolerance may be managed by taking short breaks from medication, switching from one stimulant to another or using a non-stimulant.
Too many prescriptions?
ADHD is becoming increasingly recognised, with more people – 2–5% of adults and 5–10% of children – being diagnosed. In Australia stimulants are highly regulated and mainly prescribed by specialists (paediatricians or psychiatrists), though this differs from state to state. As case loads grow for this lifelong diagnosis, there just aren’t enough specialists to fit everyone in.
In November, a Senate inquiry report into ADHD assessment and support services highlighted the desperation experienced by people seeking treatment.
There have already been changes to the legislation in New South Wales that may lead to more GPs being able to treat ADHD. Further training could help GPs feel more confident to manage ADHD. This could be in a shared-care arrangement or independent management of ADHD by GPs like a model being piloted at Nepean Blue Mountains Local Health District, with GPs training within an ADHD clinic (where I am a specialist clinician).
Not every person with ADHD will need or want to take medication. However, it should be more easily available for those who could find it helpful.
Alison Poulton, Senior Lecturer, Brain Mind Centre Nepean, University of Sydney
This article is republished from The Conversation under a Creative Commons license. Read the original article.
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What is childhood dementia? And how could new research help?
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“Childhood” and “dementia” are two words we wish we didn’t have to use together. But sadly, around 1,400 Australian children and young people live with currently untreatable childhood dementia.
Broadly speaking, childhood dementia is caused by any one of more than 100 rare genetic disorders. Although the causes differ from dementia acquired later in life, the progressive nature of the illness is the same.
Half of infants and children diagnosed with childhood dementia will not reach their tenth birthday, and most will die before turning 18.
Yet this devastating condition has lacked awareness, and importantly, the research attention needed to work towards treatments and a cure.
More about the causes
Most types of childhood dementia are caused by mutations (or mistakes) in our DNA. These mistakes lead to a range of rare genetic disorders, which in turn cause childhood dementia.
Two-thirds of childhood dementia disorders are caused by “inborn errors of metabolism”. This means the metabolic pathways involved in the breakdown of carbohydrates, lipids, fatty acids and proteins in the body fail.
As a result, nerve pathways fail to function, neurons (nerve cells that send messages around the body) die, and progressive cognitive decline occurs.
What happens to children with childhood dementia?
Most children initially appear unaffected. But after a period of apparently normal development, children with childhood dementia progressively lose all previously acquired skills and abilities, such as talking, walking, learning, remembering and reasoning.
Childhood dementia also leads to significant changes in behaviour, such as aggression and hyperactivity. Severe sleep disturbance is common and vision and hearing can also be affected. Many children have seizures.
The age when symptoms start can vary, depending partly on the particular genetic disorder causing the dementia, but the average is around two years old. The symptoms are caused by significant, progressive brain damage.
Are there any treatments available?
Childhood dementia treatments currently under evaluation or approved are for a very limited number of disorders, and are only available in some parts of the world. These include gene replacement, gene-modified cell therapy and protein or enzyme replacement therapy. Enzyme replacement therapy is available in Australia for one form of childhood dementia. These therapies attempt to “fix” the problems causing the disease, and have shown promising results.
Other experimental therapies include ones that target faulty protein production or reduce inflammation in the brain.
Research attention is lacking
Death rates for Australian children with cancer nearly halved between 1997 and 2017 thanks to research that has enabled the development of multiple treatments. But over recent decades, nothing has changed for children with dementia.
In 2017–2023, research for childhood cancer received over four times more funding per patient compared to funding for childhood dementia. This is despite childhood dementia causing a similar number of deaths each year as childhood cancer.
The success for childhood cancer sufferers in recent decades demonstrates how adequately funding medical research can lead to improvements in patient outcomes.
Another bottleneck for childhood dementia patients in Australia is the lack of access to clinical trials. An analysis published in March this year showed that in December 2023, only two clinical trials were recruiting patients with childhood dementia in Australia.
Worldwide however, 54 trials were recruiting, meaning Australian patients and their families are left watching patients in other parts of the world receive potentially lifesaving treatments, with no recourse themselves.
That said, we’ve seen a slowing in the establishment of clinical trials for childhood dementia across the world in recent years.
In addition, we know from consultation with families that current care and support systems are not meeting the needs of children with dementia and their families.
New research
Recently, we were awarded new funding for our research on childhood dementia. This will help us continue and expand studies that seek to develop lifesaving treatments.
More broadly, we need to see increased funding in Australia and around the world for research to develop and translate treatments for the broad spectrum of childhood dementia conditions.
Dr Kristina Elvidge, head of research at the Childhood Dementia Initiative, and Megan Maack, director and CEO, contributed to this article.
Kim Hemsley, Head, Childhood Dementia Research Group, Flinders Health and Medical Research Institute, College of Medicine and Public Health, Flinders University; Nicholas Smith, Head, Paediatric Neurodegenerative Diseases Research Group, University of Adelaide, and Siti Mubarokah, Research Associate, Childhood Dementia Research Group, Flinders Health and Medical Research Institute, College of Medicine and Public Health, Flinders University
This article is republished from The Conversation under a Creative Commons license. Read the original article.
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Beetroot vs Carrot – Which is Healthier?
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Our Verdict
When comparing beetroot to carrot, we picked the carrot.
Why?
It was close! And beetroot does have its advantages, but we say carrot wins on balance.
In terms of macros, these two root vegetables are close to identical, down to both having 9.57g carbs per 100g, and 2.8g fiber per 100g. Technically, beetroot has a smidgen more protein, but nobody’s eating these for their tiny protein content.
When it comes to vitamins, it’s not close and the margins are mostly huge: carrots have a lot more of vitamins A, B1, B2, B3, B5, B6, C, E, K, and choline, while beetroot has more vitamin B9.
In the category of minerals, superficially it swings the other way, but the margins this time are small. Nevertheless, beetroot has more copper, iron, magnesium, manganese, phosphorus, potassium, selenium, and zinc, while carrots have more calcium.
This would make things, on balance, a tie: equal on macros, carrots win on vitamins, beetroot wins on minerals.
But because of the relative margins of difference, carrots win the day, because they’re almost as good as beetroot on those minerals, whereas beetroot doesn’t come close to carrot on the vitamins.
Want to learn more?
You might like to read:
From Apples to Bees, and high-fructose C’s: Which Sugars Are Healthier, And Which Are Just The Same?
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