The Japanese have used seaweed for many years. For over 2000 years, seaweed has been used as a supportive food in the Japanese diet. Six types of seaweeds were used in 800 A.D. in everyday cooking in Japan. In 794, Japanese people used seaweed to make nori, which is a dried sheet of seaweed.

Europeans used Mediterranean seaweed as an herbal medicine. As early as 100 BC, the Greeks collected seaweed. All along the Mediterranean coast, red algae were used as sources of dying agents and as a medicine to treat parasitic worms since pre-Christian times.

Hawaiians and other Polynesian societies grew kelp farms. They used 60-70 species of seaweed for food, medicinal purposes, and ceremonies.

Harmful Effects of Oxalates in the Diet:

• contribute to the formation of kidney stones
• cause mineral deficiencies, resulting in bone disease, abnormal growth, dysfunction of the reproductive system and other disorders
• cause depletion of the antioxidant glutathione, resulting in an impaired ability of the liver to detoxify as well as a lowered potential to preserve brain health
• damages cell membranes and mitochondria
• resulting in fatigue and energy issues leading to cell death
• triggering nerve cell damage that causes functional problems throughout the nervous system
• creating autoimmune symptoms by stressing and confusing the immune system.
• corroding digestive system linings, causing leaky gut and/or other gastrointestinal diseases

Please follow the links below to learn more about oxalates and their poisonous effects:

Sally K Norton, MPH Is the leading expert on the harmful effects of oxalates in food. Her ground breaking book Toxic Superfoods is a must read!

Jill Harris, LPN, CHC has written extensively about how to reduce oxalates in your diet.

Monique Attinger, MLIS,CHN has compiled a ton of research on the harmful effect of oxalates in our diets.

Dirty Dozen 1

Dirty Dozen 2

It's true that compared to land plants, we have little control over the growing conditions of our wild marine plants. But we do have choices about how, when, where, and how much we harvest, as well as how the seaweed are transported, dried, stored and packaged.

• Sea of Greens® contains seaweed harvested from the pristine waters of the Northern Atlantic Ocean.
• Sea of Greens®is untainted by radiation, heavy metals, herbicides, pesticides, and microbiological contaminants.
• Sea of Greens® contains fresh harvested sea vegetables, which are low-temperature dried and hand packed with minimal processing.

• Sea of Greens® is certified organic, gluten-free, soy-free, dairy-free and GMO-free by Organic Crop Improvement Association (OCIA)

Sea of Greens® is more potent and nutritionally dense than any land plant food source and contains hundreds of organic phytonutrients, many of which our bodies require to maintain optimal health, but are missing from our normal diets.

Sea of Greens® contains a full spectrum of organic vitamins, trace minerals, lipids, plant sterols, amino acids, omega 3's and 6's, anti-oxidants, growth hormones, polyphenols, flavenoids, and much more. It also contains powerful Fucoidan, Laminarin and Alginate compounds, which are not found in land plants.

Bladderwrack is one of the highest iodine containing sea vegetables known. The iodine in bladderwrack is present in the form of di-iodotyrosine (DIT) which is a normal precursor of the Thryoid Hormones T4 (Thyroxine) and T3 (tri-iodothyronine). T4 is manufactured by the condensing of DIT and thyroid peroxidase enzyme in the follicular luminae of the thyroid gland. The naturally occurring source of iodine makes Bladderwrack a great choice in the support of a healthy functioning thyroid gland, when more iodine is required for optimal function.

Also of interest is the high amount of fucoidin found in Bladderwrack. Fucoidans and Fucans are sulfated polysaccharides found in most brown seaweeds. These substances have been researched for modulating a healthy inflammatory response, and have shown strong properties for supporting a healthy immune system and intestinal flora.

Bladderwrack is also recognized as a source of other naturally occurring minerals such as iron, zinc, magnesium, potassium, calcium, magnesium, potassium, sodium, sulfur, silicon and iron and is also high in some B-complex vitamins. It contains moderate amounts of phosphorus, selenium, manganese and zinc and small amounts of vitamins A, C, E and G. Bladderwrack also contains anti-sterility vitamin S as well as vitamin K. It is rich in algin and mannitol, carotene and zeaxantin with traces of bromine.

Wakame has traditionally been cultivated by growing it on ropes tied to offshore rafts. It's mainly the seaweed "leaves" or blades that are harvested. However, all parts of the plant, except the root, are used. These can be eaten raw or cooked and can be added to soups and salads to give them that extra "umami" or savory taste. Yet it's only about 13 calories per 30 g of raw seaweed.

That tiny calorie content in Wakame is due to its low levels of fat and carbohydrates. It's also rich in vitamins and minerals. The USDA National Nutrient Database gives a complete nutritional profile of Wakame; the list of nutritional benefits includes vitamin A, vitamin C, vitamin E, vitamin K, niacin, pantothenic acid, phosphorus, riboflavin, folate, calcium, iron, magnesium, manganese and copper. One note of caution is that Wakame also contains a high amount of sodium. It is important to soak the wakame thoroughly to reduce the amount of salt used to preserve it during storage and transportation.

Wakame is a an exceptional source of the following nutrients:

1. Magnesium
• Critical in the contraction and relaxation of muscles
• Controls the function of certain enzymes in the body
• Involved in the production & transport of energy and the production of protein.
2. Iodine
• Needed for metabolism of cells - the process of converting food into energy
• maintains the balance of the thyroid gland and is needed for the production of thyroid hormones.
• Most people (as many as 80%) in the developed world suffer from mild iodine deficiency. This deficiency is often undiagnosed and leads to a variety of systemic diseases.
• Iodine deficiency gives rise to hypothyroidism, symptoms of which are extreme fatigue, goiter, mental slowing, depression, weight gain, and low basal body temperatures.

3. Calcium
• Wakame is a very bioavailable source for of calcium. Each 100 grams of raw wakame contains 150 milligrams of calcium, which is needed for strong healthy bones.
4. Iron
• Wakame is very rich in iron, a mineral which is essential for the production of red blood cells

5. Vitamins
• Vitamins A, C, E, and K. These vitamins are all amazing for skin health and repair as well as immunology.
• Vitamin D. Promotes the absorption of calcium for healthy bones and enhances the nerve, muscle, and immune systems.
• Riboflavin (Vitamin B2). We need riboflavin to use the carbohydrates, fats, and proteins in the foods we eat. Riboflavin helps us use these nutrients for energy in our bodies for growth and is also necessary for red blood cell production. Riboflavin functions as an antioxidant and works in the body with other vitamins such as niacin, folate, and vitamin B6.
• Folate (Vitamin B9). Helps the body make new cells and is especially important for pregnant women. Wakame contains 200 mcg in a 100mg serving - which is 50% of our daily requirements.
• Lignans, a phytonutrient rich in antioxidants and thought to help regulate hormone levels and support the immune system.

The inflated bulbs at the end of the blades along with a midrib in the blade are major distinguishing characteristics of rockweed. The bulbs are filled with air and mucilage that allows the blades to float exposing them to sunlight and allowing water to move through the branches.

The bumps on the bulbs are reproductive structures called pits or conceptacles. Special cells within the pits produce eggs and sperm which are released into the water column and fuse producing a baby plant. The new plant then grows directly into an adult. Reproduction occurs through the year. Other seaweeds have a more complicated reproduction cycle where one form produces eggs and sperm while another form produces spores.

The plants drift in large, spherical masses in sheltered waters, grow slowly and can live to be several decades old. Individual fronds can become up to 15 years old before breakage.

Despite looking flimsy sea lettuce is quite strong for leaves only two cells thick and can easily be harvested, in or out of the water. Sea lettuce is the greenest seaweed you will ever see. When dried by the sun, its color can range from white to black.

The sea lettuces are widely distributed along the cool water coasts of the world's oceans and are eaten by a number of different sea animals, including manatees and the sea slugs. Sea lettuce may be found attached to rocks and shells by a holdfast, but it is also commonly found free floating. Among the most common of the shallow water seaweeds, sea lettuce is often found in areas of exposed rocks and in stagnant tide pools. Sea lettuce has also been recorded at depths of 75 feet or more. Sea lettuce grows in both high and low intertidal zones and marshes throughout the year.

There are ten species of sea lettuce, all of which are edible and and a good food source for humans. Sea lettuce is high in protein, soluble dietary fiber, and a variety of vitamins and minerals, especially iron and calcium. It is usually eaten raw in salads and cooked in soups. It can also be used as a substitute for nori, a seaweed used in sushi.

Nutritionally Sea lettuce is very high in iron and protein (similar to dulse), and is high in iodine, aluminum, manganese and nickel as well. Like most of our sea veggies, sea lettuce provides considerable amounts of dietary fiber (31%). Since our sea veggies are low temp dried in the sun, sea lettuce enzymes are still active.

Dulse is a well-known snack food. In Iceland, where it is known as söl, it has been consumed throughout the centuries, and is an important dietary source of protein, fiber, potassium, iron and iodine. Dulse is also a good source of vitamins and trace minerals, containing all trace elements needed by humans. Dulse is used as fodder for animals in some countries.

Fresh dulse can be eaten directly off the rocks before sun-drying. Sun-dried dulse is eaten as is or is ground to flakes or a powder. In Iceland the tradition is to eat it with butter. It can be pan fried quickly into chips, baked in the oven covered with cheese, with salsa, or simply microwaved briefly. It can be used in soups, chowders, sandwiches and salads, or added to bread/pizza dough. Finely diced, it can be used as a flavour enhancer in meat dishes, such as chili, in place of monosodium glutamate.

Dulse is perfect in CHOWDERS, especially prized by vegetarians for its rich seafood flavor. It also goes well in any vegetable STIRFRY.

Dulse is considered a superfood because of its high iodine and potassium content, plus a long list of micro-nutrients and phytochemicals and for it's proven antioxidative properties.

Spirulina occur naturally in tropical and subtropical lakes with high pH and high concentrations of carbonate and bicarbonate. Most cultivated spirulina is produced in open channel raceway ponds, with paddle-wheels used to agitate the water. The largest commercial producers of spirulina are located in the United States, Thailand, India, Taiwan, China, Bangladesh, Pakistan, Burma (a.k.a. Myanmar), Greece and Chile.

Dried spirulina contains about 60% protein. It is a complete protein containing all essential amino acids, though with reduced amounts of methionine, cysteine and lysine when compared to the proteins of meat, eggs and milk. It is, however, superior to typical plant protein, such as that from legumes.

Spirulina's lipid content is about 7% by weight, and is rich in gamma-linolenic acid (GLA), and also provides alpha-linolenic acid (ALA), linoleic acid (LA), stearidonic acid (SDA), eicosapentaenoic acid (EPA), docosahexaenoic acid (DHA) and arachidonic acid (AA). Spirulina contains vitamins B1 (thiamine), B2 (riboflavin), B3 (nicotinamide), B6 (pyridoxine), B9 (folic acid), vitamin C, vitamin A and vitamin E. It is also a source of potassium, calcium, chromium, copper, iron, magnesium, manganese, phosphorus, selenium, sodium and zinc. Spirulina contains many pigments which may be beneficial and bioavailable, including beta-carotene, zeaxanthin, chlorophyll-a, xanthophyll, echinenone, myxoxanthophyll, canthaxanthin, diatoxanthin, 3'-hydroxyechinenone, beta-cryptoxanthin and oscillaxanthin, plus the phycobiliproteins c-phycocyanin and allophycocyanin.

Chlorella is spherical in shape, about 2 to 10 microns in diameter, and is without flagella. It contains both of the green photosynthetic pigments chlorophyll-a and chlorophyll--b in its chloroplast. Through photosynthesis, it multiplies rapidly, requiring only carbon dioxide, water, sunlight, and a small amount of minerals to reproduce.

Chlorella is considered a superfood, because it is high in protein and other essential nutrients. When dried, it is about 45% protein, 20% fat, 20% carbohydrate, 5% fibre, and 10% minerals and vitamins. It is also abundant in calories and vitamins.

Chlorella also supports healthy detoxification. Due to it's small size, unique molecular structure and being rich in chlorophyll, ingested chlorella bonds to metals, chemicals and some pesticides and in doing so helps support our body in eliminating these unwanted metals and toxins.

Moroever, Chlorella is uniquely designed to NOT bind to the minerals our body needs to function optimally. It does not bind to beneficial minerals like calcium, magnesium, or zinc. It's almost as if chlorella knows which metals belong in our body and which chemicals need to be removed.

Chlorella is one of the most widely studied food supplements in the world. Aside from being the subject of medical research in the USA, USSR, Germany, Japan, France, England and Israel, chlorella has been extensively studied as a food source since it is made up of a whopping 50 percent protein and is considered a complete amino acid-based food. Even NASA has studied using chlorella as the one of first whole foods in space on the international space station!

Under certain growing conditions, Chlorella yields oils that are high in polyunsaturated fats. Chlorella minutissima has yielded EPA at 39.9% of total lipids.

Not All Chlorella is Created Equal

Unlike many food supplements, chlorella has one unique feature that makes the manufacturing process one of the primary concerns when considering a source. Chlorella is completely indigestible by humans. We simply do not have the enzymes to break down its cell wall.

Simply chewing and digesting chlorella, will not release the powerful health benefits it offers. This is because chlorella's tough outer cell wall, which is also chemically responsible for binding with the toxins inside our bodies, cannot be broken down by humans.

It is therefore, imperative that the manufacturing process break down the tough outer cell wall for us (resulting in "Broken Cell Chlorella"), as this is the only way to make the chlorella biologically available to our bodies.

Another concern when choosing which chlorella to use is the source water where it is grown and harvested. Since chlorella is a natural green food, it will be affected by polluted water and will retain environmental toxins if it's grown in contaminated waters.

The chlorella contained in Sea Of Greens™uses a broken cell technology using a milling process that eliminates light and heat to preserve nutrients.

In recent years, scientific interest has intensified around fucoidan. Some studies have suggested that fucoidan may help promote healthy immune function. particularly the radioprotective effects of fucoidan may have on bone marrow cells (BMCs), which are the main cellular reservoir for the hematopoietic and immune system.

Many experts now believe fucoidan is one of the key nutrients responsible for the exceptionally long, healthy lives enjoyed in Okinawa, Japan, where fucoida is part of the daily diet and where there is the world's highest concentration of centenarians.

When vertebrates lived in the sea, even at about 60 ppb, there was a constant reliable source of iodine. Since some vertebrates left the sea, obtaining enough iodine has been a challenge to their descendants, including ourselves.

Since no land plants require iodine, their taking it in from roots or leaves may be just incidental. That has meant that few land plants are reliable or even adequate iodine sources, unless consumed in large quantities. Eating 3-5 grams of most dried, unrinsed seaweeds will however provide the RDA of 100-150 micrograms.

In adult humans, chronic low iodine consumption often results in first, goiter, an enlargement of the thyroid gland, deliberately generated by TSH (thyroid-stimulating Hormone) to increase thyroid gland cell surface area and more "iodine traps", and secondly, various manifestations of hypothyroidism. The treatment is often simply more dietary iodine for both conditions, which can be easily accomplished by consuming dietary seaweeds.

Since the dawn of the nuclear age, iodine has taken on even more importance. When Uranium is used in nuclear fission, one of the decay products is Iodine 131. That means not only nuclear weapons and bombs, but also, all of the controlled nuclear events with nuclear reactor fuel rods, release radioactive Iodine 131 into the atmosphere. We are all continually and erratically dusted with Iodine 131 every day of every year.

Additionally, nuclear disasters such as Three-mile Island in USA, Chernobyl in Ukraine and Fukushima in Japan all released enormous quantities of Iodine 131 into the atmosphere. Since then, millions of iodine 131-induced thyroid diseases have been reported worldwide, starting shortly after each event and continuing through today.

Relatively rare 20 years ago, and unknown prior to 1945, thyroid cancer is now the number one cancer in children. The prevalence of thyroid cancers in both adult men and women is increasing at an alarming rate.

Iodine 127 is the only natural isotope of iodine and it is very stable, unlike Iodine 131 which is very unstable and decays with the release of a high energy Beta particles, which wreak havoc on any tissue it comes in contact with. The reason Iodine 131 is so hazardous is because our bodies will happily take it in if we need iodine. Furthermore, Since prior to the human atomic age there was no iodine 131, we have not evolved to the point of developing any natural defense against it.

If we have sufficient Iodine 127 in our bodies, our bodies will not take in the heavier iodine 131, but if we are deficient, our thyroids will take it up and will likely develop cancers.

Potassium Iodide (KI) and Potassium Iodate (KIO3) are good sources for iodine 127, should a nuclear emergency arise. However, neither is recommended to take on a daily basis. Both can have side effects, could be overdosed on and could potentially be dangerous in general.

It is far better to take an organic source of iodine. There is no better organic source than seaweed, which contains organically bound iodine. The organically bound iodine in seaweed is far more bioavailable than KI or KIO3, and it can be consumed everyday with no problem. if we continually take in 150 micrograms of iodine 127 daily (accomplished by consuming 3-5 grams of seaweeds daily), we will most likely be protected from iodine-deficiency. and thus protected from iodine 131.