If you’ve never gotten fast food after leaving a bar late at night (or, more correctly, early in the morning) I’d highly recommend it. I’ve never been sure if it’s the intoxication, the tiredness, or the unusual hour that makes post-pub falafel taste like heaven, but somehow after I go out drinking with my lab mates the food always just is better. I had resigned myself to the mysterious joy of 2 a.m. poutine remaining just that, a mystery. But last Christmas my grandfather took me by the shoulders and with odd earnest asked me to write an article finding out if alcohol is an appetite stimulant. Well, Grandpa, it may have taken seven months, but here it is! Let’s take a look at the evidence for alcohol as an appetite stimulant.
Its catapult to popularity may have been triggered by the pandemic-induced yeast shortages, but even months later, when instant yeast is once again available at most grocery stores, sourdough’s contemporary stardom is barely starting to fade. Sure, many of us turned to making a sourdough starter to simultaneously combat yeast scarcity and our newfound fear of going to the grocery store. But lots of us have kept up with our strange new hobby of mixing water with flour and leaving it on the counter for reasons beyond just the practical.
Surgeons often instruct patients to refrain from consuming food or drink before surgeries. However, even when patients aren’t allowed to eat, they can often drink “clear fluids”. Why aren’t clear fluids counted as consumption, and what purpose does fasting before surgery even serve?
As of October 18th, 2019, edible (and drinkable) cannabis became legal in Canada. And yet, almost 5 months later, legal cannabis stores have remarkably little selection. The SQDC (Quebec’s cannabis retailer) only started stocking cannabis beverages one week ago and only offers three types of tea and one type of seltzer. All things considered, it doesn’t seem like drinkable cannabis will be replacing Canadian’s joints, oils, pills or vapes any time soon.
If we look elsewhere however, the story of cannabis drinks couldn’t be more different.
According to the 2017 World Drug Report from the United Nations Office on Drugs and Crime, two of the top 10 cities that consume the most cannabis in the world are in India: New Delhi and Mumbai. The trick here is that much of the cannabis consumed isn’t smoked, but rather drunk in a drink called “bhang”.
Bhang looks somewhat like a shamrock shake or a green smoothie, but tastes (I’m told) of spices and herbs like saffron, fennel, garam masala and more. Strictly speaking, the term bhang refers to a paste made by steeping finely ground cannabis leaves (not buds) in hot milk. This paste can then be eaten on its own or used to create drinks or snacks like pakoras. However, the most popular preparation by far involves adding more milk, rosewater, sugar, nuts and other ingredients to the paste to create a refreshingly cool drink. This drink is often referred to as bhang but is more correctly named according to what ingredients are used, as a bhang thandai, bhang lassi or other.
Bhang is especially common during Hindu festivals, in particular Holi, the two-day Festival of Spring, which turns the streets into a sea of colour with coloured paint and water pistols. Cannabis has a rich history in sacred Hindu texts and is named as one of the five sacred plants in the Atharva Veda. The Hindu god Shiva has long been associated with cannabis, and is said to have used bhang for meditative and healing purposes, and is even known as the Lord of Bhang. Cannabis has been used in Ayurvedic medicine to treat conditions ranging from skin disorders to anxiety.
Despite India’s rich cannabis-history, marijuana is actually illegal in the country. Bhang manages to maintain its huge consumption rates due to a legal loophole. It is against Indian law to possess hashish and ganja, but not the leaves of the cannabis plant, which is what bhang is made from. Incidentally, despite its illegality, hashish (made from the resin of the cannabis plant and commonly mixed with tobacco before smoking) is much more popular in India than in North America, while marijuana (the dried buds of the cannabis plant) is much less popular.
Interestingly, cannabis of all preparations was legal in India until 1961, when the Single Convention on Narcotic Drugs moved cannabis to the hard drug category. Prior to this, cannabis consumption had been seen as an inherent part of the religious and social customs of India. Even the colonial British rulers concluded, after commissioning the Indian Hemp Drugs Commission Report of 1894, that “to forbid or even seriously to restrict the use of so gracious an herb as cannabis would cause widespread suffering and annoyance.”
Today any flowering top (called ganja) and separated resin (called charas) from the cannabis plant remains illegal in India, although that is clearly not limiting citizen’s ability to imbibe in THC and CBD. So long as only the leaves of the cannabis plant are consumed, Indians are within their legal rights. As to what happens to the flowering buds once the leaves are removed, well, perhaps I’ll save that for the Indian government to worry about.
Hard water is water containing high concentrations of dissolved minerals, usually calcium or magnesium carbonates (CaCO3 or MgCO3), chlorides (CaCl2or MgCl2) or sulphates (CaSO4or MgSO4). The hardness of water depends on its source. Groundwater that has been in contact with porous rocks containing deposits of minerals like limestone or dolomite will be very hard, while water from glaciers or flowing through igneous rocks is much softer.
The hardness of water is determined by the milligrams of calcium carbonateper litre and is reported it in parts-per-million (ppm). In general, water with less than 60 ppm can be considered soft, water with 60-120 ppm moderately hard, and water with greater than 120 ppm hard. For reference, Montreal’s water is typically around 116 ppm, or moderately hard, and sea water’s hardness is approximately 6,630 ppm since it contains many dissolved salts (depending on the sea, of course).
Hard water can interfere with the action of soaps and detergents and can result in deposits of calcium carbonate, calcium sulphate and magnesium hydroxide (Mg(OH)2) inside pipes and boilers, causing lower water flows and making for less efficient heating. The ions in hard water can also corrode metal pipes through galvanic corrosion. Water softening filters can circumvent these problems through the use of ion-exchange resins that replace calcium and magnesium ions with sodium and potassium ions. But if one consumes water with higher-than-average concentrations of calcium and magnesium. Is that OK?
The Health Effects of Hard Water
Studies have generally found hard water to have positive effects on the health of its drinkers. Severalstudies have reported that calcium and magnesium in drinking water have a dose-dependent protective effect when it comes to cardiovascular disease. There is also some evidence that calcium and magnesium in drinking water may help protect against gastric, colon, rectal cancer, and pancreatic cancer, and that magnesium may help protect against esophageal and ovarian cancer. Hard water may also serve a protective role against atherosclerosis in children and teens.
Somestudies have shown a relationship between the mineral content of water and eczema or dermatitis in children. However, a 2011 study from the University of Nottingham involving 336 children aged 6 months to 16 years with eczema put that relationship to the test. The researchers installed water softening units in half of the participants’ homes and monitored the children’s eczema over a period of 3 months. Using a standard scoring system, the group that received softened water showed a 20% improvement, while the group that continued with hard water showed a 22% improvement, making it unlikely that hard water is contributing to worsening eczema symptoms.
Likewise, while some studies have shown correlations between water hardness and kidney stone formation, the majority of studies have found no such relationship.
It is estimated that individuals living in hard water areas who drink 2 litres of water a day ingest about 52 mg of magnesium from their water. Considering the daily recommended intake of magnesium is 420 mg, water can account for about 12% of that.
Individuals with type 2 diabetes often experience hypomagnesemia (low magnesium) as insulin regulation requires magnesium to function. In these people, the extra intake of magnesium through drinking water could be beneficial. The heightened magnesium concentration in hard water can also benefit people experiencing chronic constipation, as magnesium salts act as laxatives. One study noted that vegetables cooked in hard water often show an increase in their calcium concentration, as opposed to the decrease seen when they’re cooked in soft water.
There are, however, some non-medical reasons hard water isn’t always preferable. Hard water can appear cloudy if the solubility of mineral salts is exceeded. Furthermore, if the calcium concentration surpasses 100 ppm, the water will taste “funny.” Neither of these presents a risk, but consumers prefer a “clean” appearance and taste.
Basically, while hard water can be hard on appliances and pipes, it is not hard on the body, and can actually give the daily intake of calcium and magnesium a nice little boost.
If you’re not particularly salmon savvy you may be under the impression that “salmon” is an individual species of fish, like how a black bear is an individual species of bear. That, however, is not true of our fishy friends. In fact, there are two main divisions of salmon: Atlantic and Pacific.
Atlantic salmon are big fish found in the northern Atlantic Ocean weighing 8-12 pounds when fully grown. Their meat is known to taste very mild and is generally cheaper than other types of salmon, due to the fact that nearly all of the Atlantic salmon commercially available today is farmed.
Climate change, human colonization, habitat destruction, and overfishing have decimated the wild populations of Atlantic salmon that were once abundant throughout the northern Atlantic. Lake Ontario was once home to this fish, but by 1900 the population was completely extinct. While there are still wild Atlantic Salmon alive and swimming, their capture is strictly regulated, hence the need for fish farms to fill this void.
What about Pacific salmon? Well, its name is a misnomer, since there isn’t one species of fish called Pacific salmon, but rather seven different species of salmon who live in the pacific: Sockeye, Chinook, masu (found mainly near East Asia), pink, Coho and Chum. While the Pacific salmons have suffered population losses due to humans and climate change, their numbers haven’t been decimated to the extent of the Atlantic salmon, so, wild-caught Pacific salmons are still commercially available.
Chinook (also called King) salmon are the largest of the Pacific salmons, weighing between 20 and 135 pounds. They’re known for being fatty, making them of value to chefs, and also quite pricey, due to their general rarity amongst fish. If you’re after something a little cheaper but still fat-filled, the Coho might be for you. At roughly 20 pounds in size, it is often cooked whole. Your low-fat salmon options include the lesser-known Chum or pink salmons, both quite small and low in fat, as well as the well-known, medium-sized, and bright pink Sockeye.
Whichever type of salmon you choose to eat though, you’ll want to find out where it was caught and whether it was farm-raised or wild-caught. Not for culinary purposes, since at least one study found that farmed salmon was as acceptable to eaters as wild salmon, but rather for health ones.
Quiteafewstudieshaveexaminedthelevels of contaminants like PCBs (polychlorinated biphenyls), PBDEs (polybrominated diphenylethers), PAHs (polycyclic aromatic hydrocarbons) and mercury, and the results have not been confidence inspiring.
A 2001 study found that farmed salmon showed higher levels of PCBs, PBDEs, DLCs (dioxin-like compounds) and other chlorine-containing pesticides that pose significant health risks to humans. Similarly, a 2004 study found high levels of organochlorine contaminants in farmed fish and found that farmed salmon originating in Europe had much higher contaminant concentrations than salmon originating in North America or Chile.
The contaminants seem to get into the salmon through their food. Commercially available salmon feeds are extremely high in contaminants like PCBs and PBDEs, likely due to being made from small fish who themselves harbour high concentrations of contamination.
Interestingly enough, mercury, the contaminant we are used to hearing about in fish, is not an issue for either wild or farmed salmon. One study found that there’s less mercury in B.C. raised salmon than other foods like eggs, honey or vegetables.
Severalstudieshave found that as few as one meal per month of farmed Atlantic salmon can expose the eater to contaminant levels that exceed those set by governing bodies like the World Health Organization. To reach a similar level of contamination by eating wild-caught salmon alone would take more than 4-16 meals per month. You can see a representative chart of this data (based on the United States Environmental Protections Agency’s guidelines) below.
Fish farms can also have devastating environmental consequences due to antibiotic use, waste accumulation, disease spread, escaped fish and more. These effects are bad not only for the surrounding oceans but for the fish too. Infections like sea lice can cause fish extreme pain or even kill them, and the genetic disorders common in farmed fish like curved spines or malformed jaws can severely harm their welfare.
So, what does this all mean for those who feed on fish?
You should keep in mind the potential risks of eating farm-raised salmon while grocery shopping and remember that you can minimize your exposure to these contaminants by choosing salmon that is either wild-caught or farm-raised in North America whenever possible.
If you’re eating salmon mainly for the omega-3 fatty acids, I have some good news and some bad news. The good news is that there are several non-meat sources of omega-3s, such as flax, chia, and hemp seeds, flaxseed oil, and eggs. The bad news is that many of the supposed health benefits of omega-3s have been largely overblown. Our own Dr. Christopher Labos has writtenabout omega-3’s ineffectiveness in preventing cardiovascular events and quite a few Cochrane reviews have found no benefits from fish oil for many conditions including ulcerative colitis, asthma, Crohn’s disease, allergies in children and dementia.
If, like me, you aim to cook dinners that provide both your next day’s lunch as well as a freezer portion to be thawed at some future date, you may want to stop. At least with rice.
Uncooked rice can contain spores of Bacillus cereus, a bacterium that can cause two different types of food poisoning. The first type is characterized by vomiting (and thus is called the emetic form). It results from consuming a toxin produced by the bacteria while they’re growing in your food and has a short incubation time of 1-5 hours. The second is characterized by diarrhea (and is non-surprisingly called the diarrhoeal form). It results from a toxin that is produced in your small intestine as the bacteria grow there and has a longer incubation time of 6-15 hours.
The two forms are commonly associated with different types of foods. The diarrhoeal form has been linked with foodstuff like soups, meat, vegetablesand milk products including formula. The emetic form comes from a more limited list of culprits, as it’s mostly associated with starchy foods that have been improperly stored like rice, pasta, pastries or sauces.
But what does “improperly stored” actually mean?
If a raw food is contaminated with B. cereus (as much rice is) and then cooked, some spores will remain in the cooked product (unless you’re in the habit of heating your rice to above 100 ˚C for extended periods of time). These spores, If left standing in temperatures between 10 ˚C and 50 ˚C, such as on your stove or countertop, find themselves in their ideal environment (wet and warm) to germinate, grow and produce the toxin that will make you sick.
It doesn’t take long for the spores to reproduce either. A colony of B. cereuscan double in size within 20 minutes if kept at 30˚C. The routine reheating of your food will not help to deactivate the toxin or kill the bacteria. Since this bacteria and its toxin are so resistant to heat your only hope of dodging food poisoning is to avoid allowing the bacteria to germinate.
To sidestep a nasty bout of illness caused by B. cereus you should aim to eat your food as soon as possible after it is cooked. If you can’t do that, then hot foods should be kept above 60˚C and cold foods, below 5˚C. Meats and vegetables should be cooked to an internal temperature of 60˚C and kept there for at least 15 seconds. Frozen foods should ideally be thawed in the fridge or as a part of the cooking process.
If storing leftovers for later, they should be rapidly cooled in the fridge as fast as possible (according to the NHS, within 1 hour is best). You should avoid storing hot leftovers in deep dishes or stacking containers together, as it will cause the food to cool slower. When reheating leftovers make sure they reach an internal temperature of at least 74˚C and don’t keep them for more than seven days, even in the fridge.
When dealing with high-risk ingredients (like rice, grains and other starchy foods) it’s best to not keep leftovers at all. But if you do, try not to keep them for more than one day, and never reheat them more than once. Even freezingdoesn’t kill bacteria but rather just stops them from multiplying, so, by all means, freeze your leftover curry, but make fresh rice when it’s time to eat it again.
Considering the amount of improperly stored rice I now know I’ve eaten it seems almost a miracle that I haven’t gotten sick yet. Then again, food poisoning with B. cereus is often confused with the 24-hour flu, so I may have already paid for my mistakes without even knowing it.
Let’s all learn from my mistakes and start storing our leftovers properly.