Kamis, 02 Juni 2016

Herb Spiral in West Philly Community Garden

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Over the past two weekends I spent some time building an herb spiral at a community garden at 37th and Brown St in West Philadelphia.  All the bricks were found in the surrounding neighborhood, and the soil from the Philadelphia Horticultural Society Community Garden next door.  This little garden is maintained by Growing Home, a non-profit organization trying to empower communities to grow their own food on the unused land in their neighborhoods.  This herb spiral was built entirly for free with reclaimed or donated materials.  Everything besides the corn was seeded, since we didnt have transplants available.  Hopefully in a few weeks Ill stop back and see how its doing.  Check out the photos!

After the first day.


Alex and Elissa from Growing Home


Corn Planted!



Heres the seeds that we planted



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Way to Create Biofuels

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Way to Create Biofuels


Is there a new path to biofuels hiding in a handful of dirt? 
Lawrence Berkeley National Laboratory (Berkeley Lab) biologist Steve Singer leads a group that wants to find out. They’re exploring whether a common soil bacterium can be engineered to produce liquid transportation fuels much more efficiently than the ways in which advanced biofuels are made today.

The scientists are working with a bacterium called Ralstonia eutropha. It naturally uses hydrogen as an energy source to convert CO2 into various organic compounds.

The group hopes to capitalize on the bacteria’s capabilities and tweak it to produce advanced biofuels that are drop-in replacements for diesel and jet fuel. The process would be powered only by hydrogen and electricity from renewable sources such as solar or wind.

The goal is a biofuel—or electrofuel, as this new approach is called—that doesn’t require photosynthesis.

Why is this important? Most methods used to produce advanced biofuels, such as from biomass and algae, rely on photosynthesis. But it turns out that photosynthesis isn’t very efficient when it comes to making biofuel. Energy is lost as photons from the sun are converted to stored chemical energy in a plant, which is then converted to a fuel.

“We’re after a more direct way,” says Singer, who holds appointments with Berkeley Lab’s Earth Sciences Division and with the Joint BioEnergy Institute (JBEI), a multi-institutional partnership led by Berkeley Lab.

“We want to bypass photosynthesis by using a microbe that uses hydrogen and electricity to convert CO2 into a fuel,” he adds.

Widespread use of electrofuels would also reduce demands for land, water, and fertilizer that are traditionally required to produce biofuels.

Berkeley Lab’s $3.4 million electrofuel project was funded in 2010 by DOE’s Advanced Research Projects Agency-Energy (ARPA-E) program, which focuses on “high risk, high payoff concepts—technologies promising genuine transformation in the ways we generate, store and utilize energy.”

That pretty much describes electrofuels. ARPA-E estimates the technology has the potential to be ten times more efficient than current biofuel production methods. But electrofuels are currently confined to lab-scale tests. A lot of obstacles must be overcome before you’ll see it at the pump.

Fortunately, research is underway. The Berkeley Lab project is one of thirteen electrofuel projects sponsored by ARPA-E. And earlier this year, ARPA-E issued a request for information focused on the commercialization of the technology.

Singer’s group includes scientists from Virginia-based Logos Technologies and the University of California at Berkeley. The project’s co-principal investigators are Harry Beller, Swapnil Chhabra, and Nathan Hillson, who are also with Berkeley Lab and JBEI; Chris Chang, a UC Berkeley chemist and a faculty scientist with Berkeley Lab’s Chemical Sciences Division; and Dan MacEachran of Logos Technologies.

The scientists chose to work with R. eutropha because the bacterium is well understood and it’s already used industrially to make bioplastics.

They’re creating engineered strains of the bacterium at JBEI, all aimed at improving its ability to produce hydrocarbons. This work involves re-routing metabolic pathways in the bacteria. It also involves adding pathways from other microorganisms, such as a pathway engineered in Escherichia coli to produce medium-chain methyl ketones, which are naturally occurring compounds that have cetane numbers similar to those of typical diesel fuel.

The group is also pursuing two parallel paths to further boost production.

In the first approach, Logos Technologies is developing a two-liter bioelectrochemical reactor, which is a conventional fermentation vessel fitted with electrodes. The vessel starts with a mixture of bacteria, CO2, and water. Electricity splits the water into oxygen and hydrogen. The bacteria then use energy from the hydrogen to wrest carbon from CO2 and convert it to hydrocarbons, which migrate to the water’s surface. The scientists hope to skim the first batch of biofuel from the bioreactor in about one year.

In the second approach, the scientists want to transform the bacteria into self-reliant, biofuel-making machines. With help from Chris Chang, they’re developing ways to tether electrocatalysts to the bacteria’s surface. These catalysts use electricity to generate hydrogen in the presence of water.

The idea is to give the bacteria the ability to produce much of their own energy source. If the approach works, the only ingredients the bacteria will need to produce biofuel would be CO2, electricity, and water.

The scientists are now developing ways to attach these catalysts to electrodes and to the surface of the bacteria.

“We’re at the proof-of-principle stage in many ways with this research, but the concept has a lot of potential, so we’re eager to see where we can take this,” says Singer.

CCRES
 special thanks to 
Lawrence Berkeley National Laboratory

Croatian Center of Renewable Energy Sources (CCRES)
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Rabu, 01 Juni 2016

FUCUS TREATMENTS

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Fucus Treatments









Fucus Treatments

Our best source of biological iodine and our best protection against thyroid disruption is to body-load with iodine contained in iodine-rich whole raw seaweeds as regular daily consumption. If our bodies have an ongoing full complement of I-127, we can better resist taking in incidental I-131. This means that eating seaweeds regularly in the diet, especially the big northern kelps, to provide both dietary iodine and protection against the ongoing I-131 hazards.
No land plants are a reliable natural source of iodine. 

Garlic grown near the sea often has relatively high amounts of biological iodine. Besides garlic, root crops, such as turnips, carrots, potatoes, parsnips, and sweet potatoes, are plant sources of iodine. However, the best natural source of biological iodine is seaweed. Any seaweed contains more available dietary iodine than any land plant. The seaweeds with the most available iodine are the giant kelps of the northern hemisphere. The highest concentrations of iodine occurs in Icelandic kelp (8000 ppm), Norwegian kelp (4000 ppm), and Maine and California kelp (1000-2000 ppm). The seaweeds with the least amounts of iodine are nori (about 15ppm) and sargassum (about 30-40 ppm). The amounts of iodine in land plants can be greatly increased by fertilizing food plants with seaweeds applied directly to the soil as topical mulch or tilled into the soil.
The complexity of many thyroid dysfunction cases precludes a simple set of all-purpose formulas. Each thyroid patient has a unique thyroid presentation. I try to compose an individualized functional treatment plan for each, using a few basic methods. Diet and behavior modification also are very important in thyroid case management. What follows are some of my treatment approaches and some general guidelines and notes:

Treatment Guideline 1: Rather uncomplicated seaweed therapy seems to help relieve many of the presenting symptoms of thyroid dysfunction. Some of the results are very likely from whole body remineralization (especially potassium, zinc, calcium, magnesium, manganese, chromium, selenium, and vanadium), in addition to thyroid gland aid from both sustained regular reliable dietary sources of biomolecular iodine and from thyroxin-like molecules present in marine algae, both the large edible seaweeds and their almost ubiquitous epiphytic micro-algae, predominantly the silica-walled diatoms. Seaweeds provide ample supplies of most of the essential trace elements required for adequate enzyme functioning throughout the body but especially in the liver and endocrine glands.

Treatment Guideline 2: Regular biomolecular seaweed iodine consumption is more than just thyroid food: it can also protect the thyroid gland from potential resident I-131-induced molecular disruption and cell death when the thyroid gland is fully iodized with I-127. The fear of eating seaweed that might be contaminated with I-131 is easily mitigated by allowing the seaweed to be stored for 50 days prior to dietary consumption; this will give enough time for most (99%) of any I-131 to decay radioactively.
A simple folk test for iodine deficiency or at least aggressive iodine uptake is to paint a 2-inch diameter round patch of USP Tincture of Iodine (strong or mild) on a soft skin area, such as the inner upper arm, the inside of the elbow, the inner thigh, or the lateral abdomen between the lowest rib and the top of the hip. If you are iodine deficient, the patch will disappear in less than 2 hours, sometimes as quickly as 20 minutes; if it fades in 2 to 4 hours, you may just be momentarily iodine needy. If it persists for more than 4 hours, you are probably iodine sufficient. Iodine deficiency seems to predispose to thyroid malignancy; this could explain the apparent thyroid cancer distribution “fans” downwind of nuclear facilities in previous ‘goiter belt’ areas. This test is of course easier to use with Caucasians and may not offer sufficient color contrast in brown-skinned people.

Treatment Guideline 3: Many patients with underactive thyroid glands complain of a sense of “coldness” or feeling cold all of the time; often they are over-dressed for warmth according to ‘thyronormal’ people’s standards. They may also present a low basal body resting temperature, as measured by taking their armpit temperature before rising in the morning. (Remember to shake down the thermometer the night before). Other symptoms may include sluggishness, gradual weight gain, and mild depression. For these patients, add 5 to 10 grams of several different whole seaweeds to the daily diet; that is, 5 to 10 grams total weight per day, not 5 to 10 grams of each seaweed. I usually suggest a mix of 2 parts brown algae (all kelps, Fucus, Sargassum, Hijiki) to one part red seaweed (Dulse, Nori, Irish moss, Gracillaria). The mixed seaweeds can be eaten in soups and salads or easily powdered and sprinkled onto or into any food. I recommend doing this for at least 60 days, about two lunar cycles or at least two menstrual cycles; watch for any changes in signs and symptoms and any change in average daily basal temperature.
Note that patients can have a normal 98.6°F temperature and still feel cold and also present many of the signs and symptoms of functional hypothyroidism. Do not insist that all hypothyroid patients must have abnormally low basal resting temperatures. If no symptoms improve or the temperature remains low (less than 98.6°F), continue seaweeds and request a TSH and T4 test. If TSH and T4 tests indicate low circulating thyroxin levels, continue seaweeds for another 2 months. It may take the thyroid that long to respond positively to continual regular presentation of adequate dietary iodine. Powdered whole seaweed may be much more effective than flakes, pieces, or granules. The powdered seaweed is best added to food immediately prior to eating; do not cook the seaweed for best results.
All corticosteroids tend to depress thyroid function. Before trying to fix the thyroid, be sure to inquire about both internal and topical steroid use, including Prednisone and topical creams. These, as well as salicylates and anticoagulants, can aggravate existing mild hypothyroidism.

Treatment Guideline 4: Partial thyroidectomy cases can be helped by regular continual dietary consumption of 3-5 grams of whole seaweeds three to four times a week. By whole seaweed I mean untreated raw dried seaweed, in pieces or powder, not reconstructed flakes or granules.

Treatment Guideline 5: Patients with thyroid glands on thyroid replacement hormone (animal or synthetic) can respond favorably to replacing part or all their entire extrinsic hormone requirement by adding dietary Fucus in 3 to 5 gram daily doses, carefully and slowly. Fucus spp. has been the thyroid folk remedy of choice for at least 5000 years. The best candidates are women who seek a less hazardous treatment than synthetic hormone (after reading variously that prolonged use of synthetic thyroid hormone increases risk for heart disease, osteoporosis, and adverse interactions with many prescribed drugs, particularly corticosteroids and antidepressants).
Fucus spp. contains di-iodotyrosine (iodogogoric acid) or DIT. Two DIT molecules are coupled in the follicular lumina of the thyroid gland by a condensing esterification reaction organized by thyroid peroxidase (TPO). This means that Fucus provides easy-to use-prefabricated thyroxine (T4) halves for a boost to weary thyroid glands, almost as good as T4. European thalassotherapists claim that hot Fucus seaweed baths in seawater provide transdermal iodine; perhaps hot Fucus baths also provide transdermal DIT.
The best results with Fucus therapy are obtained with women who were diagnosed with sluggish thyroid glands and who are or were on low or minimal maintenance replacement hormone dosages. They may remark that they miss, forget, or avoid taking their thyroid medication for several days with no obvious negative short-term sequelae; others claim to have just stopped taking their medication. I do not recommend stopping thyroid medication totally at once. Thyroxin is essential for human life and all animal life; it has a long half-life in the body of a week or more, so that a false impression of non-dependency can obtain for up to 2 months before severe or even acute hypothyroidism can manifest, potentially fatal.
Even though I personally do not recommend it, women regularly stop taking their thyroid replacement hormone, even after years of regularly and faithfully taking their medication. In many cases, their respective thyroid glands resume thyroxine production after a 2- to 3-month lag time with many of the signs and symptoms of hypothyroidism presenting while their thyroid glands move out of inactivity. This complete cessation of taking thyroid replacement can only be successful in patients who have a potentially functioning thyroid gland. Those who have had surgical or radiation removal of their thyroid glands must take thyroid hormone medication containing thyroxine to stay alive.
Fucus can be easily added to the diet as small pieces, powdered Fucus in capsules, or freeze-dried powder in capsules. Sources of Fucus in capsules are listed under Seaweed Sources at the end of this paper. The actual Fucus is much more effective than extracts. A nice note is that Fucus spp are the most abundant intertidal brown seaweeds in the northern hemisphere. This is of especial interest to those patients who might be trading one dependency for another, as seems to be the case for some. A year’s supply can be gathered in an hour or less and easily dried in a food dehydrator or in hot sun for 10 to12 hours and then in a food dehydrator until completely crunchy dry. Fucus dries down about 6 to 1 (six pounds of wet Fucus dry down to about one pound). It has a modest storage life of 8 to 12 months in completely airtight containers stored in the dark at 50° F. A year’s supply at 4 grams per day is slightly more than 3 pounds dry. Encapsulated Fucus is available from Naturespirit Herbs, Oregon’s Wild Harvest, and Eclectic Institute.

Treatment Guideline 6: Aggressive attempts to replace thyroid replacement hormone with Fucus involve halving the dose of medication each week for 4 weeks while adding 3 to 5 grams of dried Fucus to the diet daily from the beginning and continuing indefinitely. If low thyroid symptoms appear, return to lowest thyroid hormone maintenance level and try skipping medication every other day for a week, then for every other 2 days, then 3 days, etc. The intent is to establish the lowest possible maintenance dosage by patient self-evaluation and/or to determine if replacement hormones can be eliminated when the patient ingests a regular reliable supply of both biomolecular iodine and DIT. Thoughtful, careful patient self-monitoring is essential for successful treatment.

Treatment Guideline 7: A more conservative replacement schedule is similar to the aggressive approach, except that the time intervals are one month instead of one week, and the Fucus addition is in one gram increments, beginning with one gram of Fucus the first month of attempting to halve the replacement hormone dosage, and increasing the amount of Fucus by a gram each succeeding month to 5 grams per day. The conservative schedule is urged with anxious patients and primary caregivers.
There is some concern that excess (undefined) kelp (species either unknown or not mentioned) consumption may induce hypothyroidism. It seems possible. The likely explanation is an individual’s extreme sensitivity to dietary iodine: Icelandic kelp can contain up to 8000 ppm iodine; Norwegian kelp can contain up to 4000 ppm iodine. Most kelps contain 500 to 1500 ppm iodine.
The only definitive study I have seen is a report from Hokkaido, Japan, where study subjects, at a rate of 8% to 10% of total study participants, presented with iodine-induced goiter from the consumption of large amounts of one or more Laminaria species (Kombu) of large kelps, known to be rich (more than 1000 ppm) in available iodine. Reduction of both total dietary iodine and/or dietary Kombu led to complete remission of all goiters. The apparent iodine-induced goiters did not affect normal thyroid functioning in any participants. Two women in the study did not care if they had goiters and refused to reduce their Kombu intake. Note that the Japanese have the world’s highest known dietary intakes of both sea vegetables and iodine.
Reduction or elimination of seaweeds from the diet is indicated for at least a month in cases of both hyperthyroidism and hypothyroidism, to ascertain if excess dietary iodine is a contributing factor to a disease condition. Other dietary iodine sources, particularly dairy and flour products, should also be reduced and or eliminated during the same time period. Some individuals do seem to be very dietarily iodine-extraction efficient and iodine sensitive simultaneously.
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New Tank for the Guppies!

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The old circular guppy tank is actually a plastic kitchen basin/tub that had been under the sun for about 4 years now. Its upper surface is turning to powder and should be very fragile by now. What Im worried about is the amount of plastic chemicals that had been leaching into the system for all these years. In fact, there is a strong plastic smell when I sniff the basins rim.

Plastic surface turning into powder... The effects of 4 years of sun damage...

White patches are 4 year old stains from adhesive paper tape... Those lighter colored scratch marks are my attempts at removing the tape... Scratching the surface releases a lot of dust particles and smell...

And so, I decided to get them a new tank today. Its smaller than the growbed but much bigger than the previous circular tank. After adding the new tank to the system, I realized that quite a significant amount of water was drawn up to the new tank lowering the water depth in the tilapia tank. I worry that the shallower water will now cause the water to heat up quicker during noon. And so I proceeded to add 3 more pails (39 litres) of water salted to 3ppt into the system.

This photo was taken at 8:15 pm. It was already pretty dark during that time, but the cameras flash made it seems like it was taken during noon.
Just to be safe, I will conduct further water changes in the future to remove any more lingering chemicals in the systems water. I wont be consuming any vegetables (the mint, pegaga, and kangkong) that was planted or will be planted before completing the future water change in case they had absorbed some chemicals in them. I wont be culling my guppies and pleco as I wont be eating them, but they might continue pooping out plastic tainted poo for some time which may go in to my plants or find a way into tilapia blood stream. I will ignore those minute traces of plastic chemicals and only seek to minimize instead of a total removal. Im sure I should be worrying more about other pollutants such as vehicle exhaust and cigarette smoke than plastic chemicals leaching in to water.

Thanks for reading...
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The power of Omega 3 oils

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Algae omega-3 fatty acids provide significant health and development benefits during life in the womb. Health and cognitive benefits for omega-3s continue throughout life.

Omega-3 oils
Omega-3 oils
 Essential fatty acids are fatty acids critical to the good health and development of fetuses and newborns. Fetal life and early infancy are the periods of rapid brain, eyes, heart, respiratory, central nervous system, and immune system development and maturation. Omega-3s enhance these growth phases and help children avoid major organ disorders. Newborns may get omega-3 fatty acids from mother’s milk, (if the mother absorbs omega-3s in her diet), from the child’s diet, or from supplements.
Neither humans nor animals can synthesize omega-3 oils because bodies lack the desaturase enzymes required for their production. Therefore, if the mother’s diet is deficient in omega-3s, the infant will not benefit from the essential early growth and development support from long chain fatty acids.

Omega-3s improve Neuron Signaling

Omega-3s improve Neuron Signaling

Omega-3 oils Omega-3s improve Neuron Signaling
Clinical signs of essential fatty acid deficiency include a dry scaly rash, decreased growth in infants and children, slow or abnormal brain, eye and heart development, increased susceptibility to infection and poor wound healing. Fatty acid deficiency causes pathologies similar to malnutrition.
Most foods contain some fat, even vegetables, because fats play a critical role in metabolism. Fat provides a reliable source of energy as well as an effective depot for stored energy. Fats play an important role in cell membranes, helping to govern nutrients that enter and exit cells during metabolism. When incorporated into phospholipids, fatty acids affect cell membrane properties such as fluidity, flexibility, permeability, and the activity of membrane bound enzymes.
Research shows that omega-3 fatty acids reduce inflammation and may help lower risk of chronic diseases such as heart disease, cancer, and arthritis. Omega-3s are highly concentrated in the brain and appear to be important for cognitive (brain memory and performance) and behavioral function. Studies have shown that infants who do not get enough omega-3 fatty acids from their mothers during pregnancy are at risk for developing vision, brain and nerve problems. Symptoms of omega-3 fatty acid deficiency include fatigue, poor memory, dry skin, heart problems, mood swings or depression, and poor circulation.
In a recent study, prenatal algal DHA supplementation – 600 mg DHA taken from 14 weeks gestation until delivery – increased DHA blood levels in both the mother and the newborn, as well as increased infant birth weight, length, and head circumference. The DHA supplements improved fetus growth and organ development significantly. Other studies have found that prenatal DHA deficiency may limit infants’ development potential.
The DHA Intake and Measurement of Neural Development (DIAMOND) study found that supplementation with DHA and ARA omega fatty acids from 18 months to six years of age provided significant cognitive benefits. DIAMOND also found that DHA supplementation provided developmental benefits evident to six years of age.
Algae polyphenol extracts have anti-diabetic effects through the modulation of glucose-induced oxidative stress. The extracts slow starch-digestive enzymes such as alpha-amylase and alpha-glucosidase.  The plentiful soluble dietary fibers in algae help avoid obesity and diabetes. The total fiber content of several algae species, (~6 g/100g), is greater than that of fruits and vegetables promoted today for their fiber content: prunes (2.4 g), cabbage (2.9 g), apples (2.0 g), and brown rice (3.8 g).
The body uses cholesterol as the starting point to make estrogen, testosterone, vitamin D, and other vital compounds. Fats also serve as biologically active molecules that influence how muscles respond to insulin. Various forms of fats, especially Omega-3s, can accelerate or cool down inflammation.

EPA and DHA

Long chained polyunsaturated fatty acids, (PUFA) eicosapentaenoic acid, EPA, and docosahexaenoic acid, DHA, manage and moderate inflammation and many other cellular functions. These fats influence signaling in cells and the brain and therefore affect mood and behavior.
The US National Institute of Health’s MedlinePlus lists many medical conditions for which EPA alone, or in concert with other omega-3 sources, is known or thought to be an effective treatment. Most medical interventions derive from omega-3 oils’ ability to lower inflammation or enhance cell signaling.
(Left) Anchovy harvested for Fish Oil, (Right) Algae with Omega-3
(Left) Anchovy harvested for Fish Oil, (Right) Algae with Omega-3
Omega-3s are often obtained in the human diet by eating oily fish or fish oil— e.g., cod liver, herring, mackerel, salmon, menhaden and sardine. It is also found in human breast milk. Fish do not synthesize Omega-3s, but concentrate it from the algae they consume. Omega-3 rich microalgae are cultivated as a commercial source by a few companies such as Martek and Algae Biosciences. Microalgae, and supplements derived from algae, are excellent sources of EPA and DHA, since fish often contain toxins such as mercury and pesticides due to pollution.
DHA comprises 40% of the polyunsaturated fatty acids (PUFAs) in the brain and 60% of the PUFAs in the retina. Fifty percent of the weight of a neuron’s plasma membrane is composed of DHA. DHA is selectively incorporated into retinal cell membranes and postsynaptic neuronal cell membranes, where it plays important roles in vision and nervous system function. DHA is richly supplied during breastfeeding, and DHA levels are high in breast milk. In humans, DHA is either obtained from the diet or synthesized from eicosapentaenoic acid, (EPA).

Cognitive development

Children that are not exposed to omega-3s in the womb display a significant mental deficit that persists throughout their lives. The human brain requires Omega-3 oils for normal growth and development.
(Left) Human Brain, (Right) Isochrysis Algae with Oil
(Left) Human Brain, (Right) Isochrysis Algae with Oil
Review studies suggest that omega-3s positively affect pre-natal neurodevelopment. However, this cognitive-enhancing effect sometimes diminishes post-natally with maturation. Few studies have examined the cognitive effects of omega-3s through childhood, young adulthood, and middle age. At later ages, multiple studies found evidence suggesting that omega-3s can protect against neurodegeneration and possibly reduce the chance of developing cognitive impairment.
Several variables confound PUFA supplements including heredity, diet, mother’s health, and socioeconomics. Supplement treatments in medical studies typically use 1,000 mg of omega-3 per day.
Another important finding is that too much omega-6 oil (found in vegetable oils, nuts and seeds), in the diet may interfere with the action of omega-3. Omega-6 seems to compete with Omega-3 PUFA for the desaturase enzymes. Therefore, medical researchers suggest that maximum value of omega-3 supplements will occur if the diet minimizes omega-6 intake.

Summary

Omega-3 fatty acids can enhance fetal life and give children a better start in life with stronger brains, eyes, hearts and respiratory systems. Pregnant women and nursing mothers have the opportunity to gift strong cognitive development to their newborns with either several servings of fish per week or the recommended 1,000 mg of omega-3 supplements per day.

CCRES special thanks to  AlgaeIndustryMagazine.com

CROATIAN CENTER of RENEWABLE ENERGY SOURCES (CCRES)
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Simple steps to save tomato seeds

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One of the best features of a tomato plant is that it is self pollinating. So you dont need to worry about the quality of the tomato seeds unless you are using hybrid variety. There is very little chance of insects polluting the quality of your seeds even though you are growing different varieties of tomatoes together.

Saving the seeds from tomatoes are very easy. First, select mature ripe tomatoes from the plant that has the best flavour (as per your liking) and is not affected by any form of diseases. Then cut the tomatoes in halves across the middle. Next take out the seeds from the fruit with the help of a spoon. If the tomatoes are fully matured it should not be a problem.

You will find the seeds are covered with pulp gelatinous coating. This coating is required for the safety of the seeds and it prevents the seeds from germinating inside the tomato.

To save the seed you need to separate them form the coating. The process used for this is called fermentation. For this you need to put the seeds along with the coating into a jar. Add some water and stir it with a help of a spoon. You can instantly see the juices and some part of the coating are getting separated from the seeds and the water are getting murky. Now remove the murky water and replace it with fresh ones. After that keep the jar in a place far from the sunlight and cover it with a lid. You need to repeat the process for quite some time to remove all the coating from the seeds. It generally requires 2 to 3 days before all the coating gets removed. You need to change the water 4 to 5 times in between these days. Once the coating is removed fully, you can see the clear seeds settling down at the bottom of the pot. Drain out the water and you will get the clean good quality seeds.

To store the seeds for future use you need to remove every bit of moisture from the seeds. Place them on some paper towel and cover them. It is best to store the seeds along with the paper towel so that even the outside moisture can’t interfere with the seeds. And thats it, the process is complete.

So now you know how can you save the seeds from your tomato plants give it a try. By saving your own seeds you will get the same quality of tomatoes for years with no additional costs.

If you have any suggestions regarding tomato seeds saving feel free to share.
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Wordless Wednesday winter sunshine and grasses in Bristol City Centre

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