Retired Pharmacy Chief Said: “ The World Needs To Know, Alkaline Water Balances The Body’s pH Level And Reduces Cancer Risk” – This is How To Prepare It!

Cancer, the deadliest disease nowadays, is a constant threat to all of us. Yet, you probably have already heard about the fact that cancer cells cannot thrive in the alkaline environment. Therefore, the alkaline water we are recommending today is a real natural miracle!

 The scale of pH (potential hydrogen) values starts with zero and ends with 14, so 7 is the neutral middle. Substances with values lower than 7 are acidic, while anything above 7 is alkaline.

The tap water we drink contains hormones, chlorine, antibiotics, and various metals, which end up in the system soon after you consume it. This water weakens the immune system and leads to various illnesses.

When the body is acidic, the individual often experiences digestion issues, weight gain, fatigue, low energy levels, and other side- effects.

Yet, if you consume pure water, and consume fresh, organic vegetables, you will maintain a healthy alkaline- acidic balance in the system, and thus all these symptoms will be avoided.

It has been known for centuries that our pH levels in the body are determined by the foods we consume.

Dr. Otto Warburg of Germany won the Nobel Prize in 1931 due to his discovery that up to 95% of all cancers are a result of an acidic environment in the body.

He provided evidence that cancers cannot survive in an alkaline environment, that is if the pH level is 7.36 or above.

He found that acidosis (excess of acidity) is not only linked to the development of cancer, but it actually causes other diseases as well, including heart disease, diabetes, osteoporosis, and almost all other chronic diseases.

Here is how to prepare this alkaline water which is highly recommended by a famous retired pharmacy chief:


  • 1/4 of a ginger root
  • 1/2 a cup of mint leaves
  • 1 lemon
  • 1/2 a cucumber


Peel the ginger, and then slice it up. Cut all the ingredients in slices and mix them. Pour some water. You can keep adding water to the same ingredients up to 3 days.


You should drink this water every morning on a daily basis. All the ingredients in the water offer numerous health benefits and have potent antibacterial and disinfectant qualities.

Lemon, being the most potent cancer-fighter among them all, contains even 22 anti-cancer properties, and alkalizes the body!


Scientists have invented a graphene-based sieve that turns seawater into drinking water.

Researchers have achieved a major turning point in the quest for efficient desalination by announcing the invention of a graphene-oxide membrane that sieves salt right out of seawater.

At this stage, the technique is still limited to the lab, but it’s a demonstration of how we could one day quickly and easily turn one of our most abundant resources, seawater, into one of our most scarce – clean drinking water.


The team, led by Rahul Nair from the University of Manchester in the UK, has shown that the sieve can efficiently filter out salts, and now the next step is to test this against existing desalination membranes.

“Realisation of scalable membranes with uniform pore size down to atomic scale is a significant step forward and will open new possibilities for improving the efficiency of desalination technology,” says Nair.

“This is the first clear-cut experiment in this regime. We also demonstrate that there are realistic possibilities to scale up the described approach and mass produce graphene-based membranes with required sieve sizes.”

Graphene-oxide membranes have long been considered a promising candidate for filtration and desalination, but although many teams have developed membranes that could sieve large particles out of water, getting rid of salt requires even smaller sieves that scientists have struggled to create.

One big issue is that, when graphene-oxide membranes are immersed in water, they swell up, allowing salt particles to flow through the engorged pores.

The Manchester team overcame this by building walls of epoxy resin on either side of the graphene oxide membrane, stopping it from swelling up in water.

 This allowed them to precisely control the pore size in the membrane, creating holes tiny enough to filter out all common salts from seawater.

The key to this is the fact that when common salts are dissolved in water, they form a ‘shell’ of water molecules around themselves.

“Water molecules can go through individually, but sodium chloride cannot. It always needs the help of the water molecules,” Nair told Paul Rincon from the BBC.

“The size of the shell of water around the salt is larger than the channel size, so it cannot go through.”

Not only did this leave seawater fresh to drink, it also made the water molecules flow way faster through the membrane barrier, which is perfect for use in desalination.

“When the capillary size is around one nanometre, which is very close to the size of the water molecule, those molecules form a nice interconnected arrangement like a train,” Nair explained to Rincon.

“That makes the movement of water faster: if you push harder on one side, the molecules all move on the other side because of the hydrogen bonds between them. You can only get that situation if the channel size is very small.”

There are already several major desalination plants around the world using polymer-based membranes to filter out salt, but the process is still largely inefficient and expensive, so finding a way to make it quicker, cheaper, and easier is a huge goal for researchers.

Thanks to climate change, seawater is something we’re going to have plenty of in the future – Greenland’s coastal ice caps which have already passed the point of no return are predicted to increase sea levels by around 3.8 cm (1.5 inches) by 2100, and if the entire Greenland Ice Sheet melts, future generations will be facing oceans up to 7.3 metres (24 feet) higher.

But at the same time, clean drinking water is still incredibly hard to come by in many parts of the world – the UN predicts that by 2025, 14 percent of the world’s population will encounter water scarcity. And many of those countries won’t be able to afford large-scale desalination plants.

The researchers are now hoping that the graphene-based sieve might be as effective as large plants on the small scale, so it’s easier to roll out.

Graphene oxide is also a lot easier and cheaper to make in the lab than single-layers of graphene, which means the technology will be affordable and easy to produce.

“The selective separation of water molecules from ions by physical restriction of interlayer spacing opens the door to the synthesis of inexpensive membranes for desalination,” Ram Devanathan from the Pacific Northwest National Laboratory, who wasn’t involved in the research, wrote in an accompanyingNature News and Views article.

“The ultimate goal is to create a filtration device that will produce potable water from seawater or wastewater with minimal energy input.”

He added that the next step will be to test how durable the membranes are when used over long periods of time, and how often they need to be replaced.

The FDA Just Approved the Artificial Pancreas.

We are always excited about new technology and medical breakthroughs, but this is some of the most exciting news we’ve heard in a while! On Wednesday, September 28th, the FDA approved the first automated insulin delivery device, or “artificial pancreas.”

Why is this news so great? Well, this first-of-its-kind technology allows people with type 1 diabetes to experience a greater degree of freedom by offering continuous monitoring of their glucose levels. This task is currently a 24-7 responsibility required of patients with type 1, but with the new artificial pancreas, the individual would only be required to manually administer insulin after meals and to alert the device when they are exercising.

This incredible device is projected to become available in the Spring of 2017, and we couldn’t be more thrilled!

Watch the video. URL:


Recent Breakthroughs in Stem Cell Research Reveal That, Yes, Diabetes Can One Day Be Curable.

For Doug Melton, a researcher at Harvard University, his work with stem cell research has been fueled by his personal life—he has a son and daughter who both have type 1 diabetes. What Melton and his team have been trying to figure out, then, is whether human stem cells can produce insulin, essentially curing diabetes in the process.

The answer: probably.

The uncertainty in that answer comes from the fact that there just hasn’t been enough testing done to guarantee that, yes, diabetes will be cured with this treatment. That said, after dedicating fifteen years of his work to advancing this research, Melton and his team recently experienced what they believe to be their biggest breakthrough.

In a paper that will soon be published by the journal, Cell, Melton reports that not only were they able to rid mice of their diabetes within ten days, but that, in time, they could possess the ability to make hundreds of millions of cells that can both read the amount of sugar in the blood AND secrete the amount of insulin needed. This means that, instead of keeping diabetes at bay with external insulin applications (oral, injection), we can actually attack the disease, something many of us have been wishing we could do for some time.

Watch the video. URL:

Why Teachers Are So Tired ?

Are you tired after teaching?

Better question: When was the last time you weren’t tired after teaching?

If you’re like most teachers I know, including me and my wife, being tired at the end of the day is a way of life. We’ve become so used to it that it’s hard to imagine how it could be any different.

Our non-teacher friends have a hard time understanding how we could be so exhausted. After all, we’re not building houses, or working under tight deadlines, or competing with co-workers to sell the most widgets, or working in some ultra-competitive office with an unreasonable boss breathing down our necks. We work with kids! We work seven-hour days! We have a lot of control over our own schedules. We have summer vacation!  Some teachers have these thoughts themselves and wonder what’s wrong with them. How in the world can we be so tired?

There are three reasons.

Decision Fatigue and Willpower

Psychologist Roy Baumeister coined the term “ego depletion” after he found that humans have a limited supply of willpower.  He compares willpower to a muscle, which can strengthen, but also wear out with use. Ego depletion has a general effect, meaning that using self-control in one area of your life erodes your ability to self-regulate in other parts of your life. Baumeister found that exerting self-control results in a significant drop in blood-sugar levels.  Low blood-sugar leads to physical fatigue, which is why you’re so tired, even though the heaviest thing you lifted was a textbook.

As a teacher, think of how often you use willpower.  We censor ourselves all day.  We hold back a sarcastic remark, walk away from a lazy student when we what we really want to do is lecture her, keep our honest thoughts about the principal’s latest idea to ourselves, respond professionally to a disrespectful email from a parent, work with a student when we want to do anything but, plan the next day when we’d rather check Facebook, hold it in when we’d like to drop an F-bomb. Teachers use willpower constantly.

But here’s the real kicker: making decisions uses willpower.  Researchers call this decision fatigue. The more decisions you make over the course of the day, the more willpower you use. There’s strong research that shows criminals are far better off going before a parole board early in the day than near the end of the day. Similarly, there is research that suggests the student’s paper that gets graded first gets a fairer score than the one graded last. After a day of making decisions, we don’t have the energy left to make good ones.

It’s estimated that teachers make about 1,500 decisions every school day. When you combine those decisions with all the necessary self-regulation involved with teaching kids, it’s no wonder our willpower is gone by five o’clock. We are exhausted.

High-intensity emotions

A second reason teachers are tired is because of the effect of high-intensity emotions. High-intensity emotions like anger, frustration, excitement, and elation are physiologically taxing. Positive emotions arouse the same physiological response as negative ones: our heart rate increases, our sweat glands activate, and we startle easily. Since it activates our body’s stress response, high-intensity emotions–whether positive or negative–wear us out.

Teachers are instructed to be enthusiastic in their lessons. Many teachers believe that to be their most effective, they must be energetic. They have to bring it! That might be true, but just know that your excitement, combined with your moments of anger, frustration, and even elation, will tire you out.


Not surprisingly, worrying is linked to fatigue. When we worry, we imagine and anticipate negative events. Our stress level elevates and our body activates its fight-or-flight response. Our hearts beat faster, we sweat, and our immune systems prepare a response. As a result, we get tired.

Teachers worry for all sorts of reasons:

  • students aren’t learning
  • behavior problems
  • a lesson is bombing
  • there’s a sub tomorrow
  • a parent is angry
  • the principal is coming for an observation
  • the copy machine is down and what am I going to do now?
  • my colleague is mad at me
  • I showed a movie and a character said “hell” and now the kids might go home and tell mom and dad and they’ll call the principal and I never even filled out the stupid form I’m supposed to fill out for the movie and…I’m sure you can think of many more.

So that’s why we’re tired all the time: we make a ton of decisions, we cycle between high-intensity emotions, and we worry too much.

But there are some things you can do about it. Next, I’ll share strategies teachers can use to address each of these causes so you can go home with more energy at the end of the day.

Probiotic goods a ‘waste of money’ for healthy adults, research suggests.

University of Copenhagen study finds no evidence that so-called friendly bacteria change the composition of faecal bacteria.

While probiotic products such as milk and yoghurt-based drinks could help those with disease-associated imbalances of the gut microbiota, there was little to suggest they helped healthy individuals.

While probiotic products such as milk and yoghurt-based drinks could help those with disease-associated imbalances of the gut microbiota, there was little to suggest they helped healthy individuals. 

Fans of probiotic drinks and foods may be wasting their money, according to a review of current research into the supplements that suggests they may be of no benefit to healthy adults.

A Danish team looked at the results of seven trials of the products – often sold as milk-based drinks, biscuits, sachets, or capsules – and found no evidence they changed the composition of faecal bacteria in healthy adults.

Online blogs and magazines have helped spur a trend for lacto-fermentation of foodstuffs by touting a range of purported health benefits, such as improved digestion and resistance to infections.

Oluf Pedersen, who led the research at the University of Copenhagen, said: “While there is some evidence from previous reviews that probiotic interventions may benefit those with disease-associated imbalances of the gut microbiota, there is little evidence of an effect in healthy individuals.”

In-depth clinical trials would be needed to explore whether probiotics can help people avoid getting sick, he added.

Probiotics are live microbial food ingredients – sometimes labelled “friendly bacteria” – that are said to provide the consumer with numerous health benefits by improving the intestinal microbial balance. They are often made by introducing live bacterial cultures to everyday foodstuffs, which metabolise sugars as they multiply and leave them with a sour, fresh flavour. Aside from branded products specifically marketed as probiotic supplements, such foods include plain yoghurt, sauerkraut, miso and kefir.

Japanese miso soup
Japanese miso soup. Photograph: Photostock Israel/Getty Images

Advocates claim they can help with digestive health, allergies, immune response and obesity. Previous research has suggested that in some cases, such as where diarrhoea has arisen from antibiotic use, probiotics can have a therapeutic effect.

But when Pedersen and his team reviewed seven randomised controlled studies that investigated whether a daily probiotic supplement had any effect on the microbial composition of healthy adults’ faeces, only one showed significant changes.

Nadja Buus Kristensen, a PhD student and junior author of the study, said: “According to our systematic review, no convincing evidence exists for consistent effects of examined probiotics on faecal microbiota composition in healthy adults, despite probiotic products being consumed to a large extent by the general population.”

Studies included in the review had sample sizes ranging from 21 to 81, and included participants aged 19 to 88 years old. The Copenhagen team noted that the real impact of the probiotics may have been masked by small sample sizes and the use of different strains of bacteria and variations in participants’ diets, among other factors.

Pedersen said: “To explore the potential of probiotics to contribute to disease prevention in healthy people there is a major need for much larger, carefully designed and carefully conducted clinical trials.

“These should include ideal composition and dosage of known and newly developed probiotics combined with specified dietary advice, optimal trial duration and relevant monitoring of host health status.”

Their findings are published in the online journal Genome Medicine.

The Perfect Sleeping Positions to Fix Common Body Problems

The amount of sleep you get every night is important, but what’s even more important is that the sleep you’re getting is good sleep. If you have aches, pains, indigestion, or tend to snore, these are the positions that can help cure what ails you.

 This helpful graphic from The Wall Street Journal points out some common trouble spots and how you can adjust the way you sleep to make sure you have sweet dreams. Back pain? Try a pillow between your knees. Acid Reflux or indigestion? Elevate your head with some more comfy pillows or a few bricks under your bed’s legs. Don’t waste your precious sleeping hours by forcing yourself to sleep uncomfortably. For more information on how your sleeping position can affect you, check out the complete Wall Street Journal article at the link below.


Parkinson’s May Actually Originate From Microbes in the Gut

  • Instead of being isolated to the brain, new evidence in mice suggests that Parkinson’s disease might actually start in the gut.
  • The study could help in finding the cure for Parkinson’s, a neurodegenerative disease affecting an estimated 10 million people worldwide.


In the many studies that seek to decode the mystery that is Parkinson’s disease, scientists have confined their search to the brain. However, new research suggests that the neurodegenerative disease may actually originate in the gut. The study is detailed in the journal Cell.

Researchers have noticed that people with Parkinson’s often report constipation, as well as other digestive problems, up to ten years before tremors (the usual symptoms of Parkinson’s) cropped up. The study attributed a microbe in the gut to protein mutations in the brain known to cause Parkinson’s.

parkinson's disease microbial disease digestive problems neurodegenerative diseasesMice bred to develop Parkinson’s were put in cages that were either sterile or non-sterile. The mice in the germ-free cages manifested less motor degeneration, and their brains had reduced tangling of the protein α-synuclein. They had “almost normal performance” in motor tasks. The researchers injected gut bacteria from human Parkinson’s patients into these mice, and they deteriorated quickly. This effect did not occur with bacteria taken from healthy humans.

The mice in the normal, non-sterile cages developed the expected symptoms of Parkinson’s. When treated with antibiotics, their symptoms were reduced, suggesting effectiveness in a microbial approach to the disease.

Gut bacteria taken from healthy people didn’t have the same effect.


“We have discovered for the first time a biological link between the gut microbiome and Parkinson’s disease,” said Sarkis Mazmanian, lead researcher. Essentially, the scientists think the gut bacteria might be releasing chemicals that over-activate parts of the brain, leading to damage.

What’s next for the researchers is to identify specifically which among the cocktail of gut microbiomes is causing the disease. If these certain strains could be identified, scientists could find a way to screen for the disease before symptoms appear and the brain becomes damaged.

“Much like any other drug discovery process, translating this innovative work from mice to humans will take many years,” said Mazmanian. “But this is an important first step.”

This New Smartphone Screen Material Can Repair Its Own Scratches.

If you drop your phone and the screen shatters, you usually have two options: get it repaired or replace the phone entirely.

Chemists at the University of California, Riverside, have invented what could become a third option: a phone screen material that can heal itself.


The researchers conducted several tests on the material, including its ability to repair itself from cuts and scratches.

After they tore the material in half, it automatically stitched itself back together in under 24 hours, Chao Wang, a chemist leading the self-healing material research, tells Business Insider.

The material, which can stretch to 50 times its original size, is made of a stretchable polymer and an ionic salt.

It features a special type of bond called an ion-dipole interaction, which is a force between charged ions and polar molecules. This means that when the material breaks or has a scratch, the ions and molecules attract to each other to heal the material.

This is the first time scientists have created a self-healing material that can conduct electricity, making it especially useful for use for cell phone screens and batteries, Wang says.

material heals after being cut

Some LG phones, like the G Flex, already include a similar material on its back covers that can self-heal scratches. But this material can’t conduct electricity, so manufacturers can’t use it for screens.

Most phone screens have a grid of electrodes underneath, and when you touch it, your finger (which is also conductive) completes a circuit, telling the phone what to do.

 Wang predicts that this new self-healing material will be used for phone screens and batteries by 2020.

The team will present its research at an April 4 meeting of the American Chemical Society, the world’s largest scientific organisation devoted to the study of chemistry.

“Self-healing materials may seem far away for real application, but I believe they will come out very soon with cell phones. Within three years, more self-healing products will go to market and change our everyday life,” he says.

“It will make our cell phones achieve much better performance than what they can achieve right now.”

CRISPR Gene-Editing Tool May Help Improve Cancer Immunotherapy.

Using a new tool for editing genomes, known as CRISPR, researchers have genetically engineered immune cells and improved the ability of these cells to kill cancer cells in mice.

The cells were modified to express proteins on their surfaces called chimeric antigen receptors (CARs), which enabled the cells to recognize and attack cancer cells that expressed the corresponding antigen.

Mesothelin-specific CAR T cells attacking a cancer cell.

In experiments with the mice, immune cells that had been engineered to express CARs using CRISPR were more effective at killing tumor cells than immune cells engineered using conventional methods, the researchers reported in Nature on February 22.

The type of immunotherapy evaluated in the study is CAR T-cell therapy, a form of adoptive cell transfer. With this treatment, a patient’s own T cells, a type of immune cell, are collected from blood, modified genetically to make them better at attacking tumor cells, expanded in the laboratory, and finally returned to the patient.

To explore ways to enhance the effectiveness of CAR T-cell therapies, Michel Sadelain, M.D., Ph.D., of Memorial Sloan Kettering Cancer Center, and his colleagues turned to a technique called CRISPR, which allows researchers to edit genomes with more speed and precision than other approaches.

Creating More Potent T Cells

Conventional approaches for engineering T cells to express a CAR, such as using a retrovirus to deliver the gene, result in the gene being inserted at random locations in the genome.

With these approaches, however, there is a chance that the CAR gene could insert itself in a way that disrupts the normal functioning of the genome, causing unintended consequences, the study authors noted.

By contrast, the CRISPR/Cas9 system allows for the specific placement of genes. Dr. Sadelain and his colleagues used CRISPR to deliver a CAR gene to a precise location in the T-cell genome: the T-cell receptor alpha chain (TRAC) gene.

The TRAC region of the genome includes the gene for the T-cell receptor, which helps the immune cell detect foreign molecules. The CRISPR system edits out part of the TRAC gene in the T cells, allowing the CAR gene to insert there.

When the researchers tested the two kinds of CAR T cells in mouse models of leukemia, those in which the CAR gene had been inserted at the TRAC locus via CRISPR were more effective at destroying tumor cells than those in which it was inserted randomly with a retrovirus.

Experiments suggested that the improved anti-tumor responses of cells engineered using CRISPR was the result, in part, of the “highly regulated CAR expression” in these T cells, noted Dr. Sadelain.

Overcoming “Exhaustion”

In addition, the CAR T cells created with CRISPR were less likely to stop recognizing and attacking tumor cells after a certain time point, a phenomenon researchers call “exhaustion.”

“We found that the level of CAR expression [on T cells] and the dynamic response of the CAR following the recognition of antigens are critical in determining whether exhaustion will occur rapidly,” explained Dr. Sadelain. “Expressing the CAR from the TRAC locus greatly diminished exhaustion, resulting in superior tumor eradication.”

Based on three measures of exhaustion, less than 2% of CRISPR-created T cells showed signs of exhaustion, compared with up to half of conventionally engineered CAR T cells.

“This report describing the use of CRISPR/Cas9 technology to insert a CAR gene into a specific location in the genome is an important advance for the CAR field,” said James N. Kochenderfer, M.D., who develops and tests T-cell therapies in NCI’s Center for Cancer Research (CCR) and was not involved in the study.

“The finding that the location of CAR gene insertion can affect T-cell function is particularly intriguing,” Dr. Kochenderfer continued. “New gene-editing technologies will likely lead to rapid improvement in antigen-targeted T-cell immunotherapies for cancer.”

Looking Ahead

In an accompanying editorial, Marcela V. Maus, M.D., Ph.D., of Harvard Medical School identified three important improvements that CRISPR could potentially bring to T-cell-based therapies, one being more-effective tumor responses.

Second, the targeted nature of CRISPR-mediated CAR integration into the genome might “prove safer than random integration, which carries the potential risk of generating a harmful mutation,” Dr. Maus wrote.

Finally, this approach might “enable off-the-shelf CAR T cells to be made that need not come from a patient’s own T cells,” she continued. “This would enable easier and cheaper manufacture of CAR T cells.”

At Memorial Sloan Kettering, Dr. Sadelain’s team has been modifying its manufacturing techniques to prepare for clinical testing in the future. The researchers believe their findings could have implications for research on diseases other than cancer.

“The biology of CARs still has many secrets and surprises to reveal,” Dr. Sadelain said, adding: “Research on CARs will lead to more effective and safer therapies for a number of diseases.”