well that's helpful. thanks!
So what's in my grape brew? what gets eliminated?
So what's in my grape brew? what gets eliminated?
well that's helpful. thanks!
So what's in my grape brew? what gets eliminated?
I meant as far as a probiotic. antioxidants I don't care about so much. what would survive?
I thought I would share this you all here, as it kind of made my day. The soil in which i applied the AEM to a couple days ago is sitting in a large bin (30 gallons). It was used for one round of flowering which finished in November. The soil was re-amended with a few things, and wetted with either a compost slurry or molasses, I forget as it was a while ago. A month or so ago I applied AEM to it, and then the other day I put it in a kiddy pool, made the final AEM application, and returned it to the rubbermaid. (A practice in which I am questioning, see here).
I had to transplant a few rooted cuttings, so I used this soil. While the top was fairly cool, I reached my hand into the bin and it felt like real outdoor soil that had been warmed by the sun on a summer day. It was glorious! A sign of positive microbial activity, I hope. And not to sound like a quack, but I felt an intensely powerful energy, like what EM gurus speak of, lol. I can't really describe it that well without sounding nutty, but it was very psychedelic to say the least.
Speaking of Winogradsky columns here is a thought process/theory I wrote several years ago;
Re: Terra Preta
The Terra Preta soil regions are quite fascinating. After stumbling on the term on the Net I have done some quick reading to apprise myself of the surface information concerning Terra Preta.
It seems the current theory supports that this type of soil sustains carbons and nutrients over extended periods of time partially due to incompletely combusted organic materials (charcoal) and the interaction thereof with the soil microorganisms. The natives who
still have some bond to the history of this, maintain that if a minimum of 20 CM of the soil remains undisturbed by horticultural activities that the organismic activity re-sustains (re-invents) itself. This is not unlike a Winogradsky column which may provide a rudimentary laboratory example of what may be occurring here. http://helios.bto.ed.ac.uk/bto/microbes/winograd.htm
When one observes a map of the Terra Petra plots in the Amazon it is evident that there is a large concentration of them in close proximity to the larger trunks of the Amazon River and to the sea coast portion of the Amazon. http://www.geo.uni-bayreuth.de/bodenkunde/terra_preta/TP_map.jpg
I also read that the indigenous people (IP) had built canals lined with special shaped (diamond) stones which allowed the flow of river silt. Now, knowing (or think I know {TIK}) that there are certain organisms (purple non sulfur bacteria,(PNSB) cyanobacteria, bacillus {N fixers}, yeast/fungi, protozoa, etc. etc.) in pond/river mud and in sea water and knowing (TIK) that sea water also contains a similar consortia of microbes (which may interact beneficially with the mud and forest microbes to create a broader spectrum consortia) and that there are large influxes of salt water up the Amazon; I may hypothesize that the IP flooded large paddies (beds, plots) with this silt/mud salt-fresh water mix. In these paddies were large amounts of incompletely combusted organic material (charcoal) remaining from the IP's method of clearing land. The result perhaps was the utilization of the charcoal by the microbe consortia to sustain itself and produce waste which resulted in the production and fixation of bio-available soil/plant nutrients. The organisms would naturally sustain themselves at the depths conducive to their aerobic/anaerobic and dietary lot in life, with fermentation occurring at the lower levels providing nutrients for the organisms above them. The phototrophic microbes (PNSBs; Rhodopseudomonas palustris, Rhodobacter sphaeriodes, Rhodobacter capsulatus; would naturally be somewhat closer to the surface to absorb light but not too close to hit air and the upper levels would consist of aerobic and facultative organisms (cyanobacteria, etc. if I'm not mistaken). This would support the statement that the system re-establishes itself if no more than 20 cm is disturbed. This is not unlike the theory behind EM use horticulturally and what we see in a healthy old growth forest and natural plains grass expanse.
Of course at some point the paddy/plot would be drained in preparation for planting but the microbial consortia presumably sustains itself with less moisture.
Question...
I see the benefit of EM as speeding up the fermentation process for amendments such as Alfalfa, seaweed and most all of my other tea ingediants but I do not understand how EM really works as a soil conditioner as EM is a complilation of beneficial ANAEROBIC microbes. For anearobes to thrive and for most of them to live they require anaerobic conditions, but growing most plants require aerobic conditions, we all know that Cannabis has O2 loving roots, so it seems like kind of a parodoxy.
Lactobacillus is a genus of Gram-positive facultative anaerobic or microaerophilic bacteria[1].
Lacto Bacilli
One of the major workhorse beneficial indigenous microorganism used in natural farming is lacto bacilli. This particular beneficial microorganism is popularly used in composting that specifically arrest foul odors associated with anaerobic decomposition. Lactic acid bacteria thrive and feed on the ammonia released in the decomposition normally associated with foul odors. So if you need to decompose or ferment wastes less foul odors, lactic acid bacteria is the specific bacteria to use. Its application in organic farming is enormous. In aquaculture, one of the problem is related to water quality. Poor water quality stresses the fish which in turn stunts their growth and affects their health. This is very evident specially on high density and tank aquaculture. The ammonia produced through fish excretions pollute the water and stress the fish. With regular addition of this beneficial microorganisms to the water, this ammonia problem is minimized, if not fully arrested. It helps hasten or complete the denitrification or converting wastes into forms not harmful to fish.
Spraying diluted solution of lactic acid bacteria serum to the plant and soil helps plant growth and makes them more healthy. As it is applied to the soil or the leaves, these beneficial bacteria aid in the decomposition process, thus allowing more food to be available and assimilated by the plant.
Lactic acid bacteria is also known to produce enzymes and natural antibiotics aiding effective digestion and has antibacterial properties, including control of salmonella and e. coli. To farmers, what are observed are the general health of the plants and animals, better nutrient assimilation, feed conversion and certain toxins eliminations.
Here’s a simple method of collecting this type of microorganism. Lactic acid bacteria can be collected from the air. Pour rice wash (solution generated when you wash the rice with water) on a container like plastic pot with lid. Allow air gap at least 50-75% of the container. The key here is the air space. Cover the (not vacuum tight, allowing air still to move into the container) container with lid loosely. Put the container in a quiet area with no direct sunlight. Allow the rice was to ferment for at least 5-7 days. Lactic acid bacteria will gather in 5-7 days when temperature is 20-25 degrees C. Rice bran will be separated and float in the liquid, like a thin film, smelling sour. Strain and simply get the liquid. Put this liquid in a bigger container and pour ten parts milk. The original liquid has been infected with different type of microbes including lacto bacilli. And in order to get the pure lacto bacilli, saturation of milk will eliminate the other microorganisms and the pure lacto bacilli will be left. You may use skim or powdered milk, although fresh milk is best. In 5-7 days, carbohydrate, protein and fat will float leaving yellow liquid (serum), which contain the lactic acid bacteria. You can dispose the coagulated carbohydrate, protein and fat, add them to your compost pile or feed them to your animals. The pure lactic acid bacteria serum can be stored in the refrigerator or simply add equal amount of crude sugar (dilute with 1/3 water) or molasses. Do not use refined sugar as they are chemically bleached and may affect the lactic acid bacteria. The sugar or molasses will keep the lactic acid bacteria alive at room temperature. One to one ratio is suggested although sugar, regardless of quantity is meant simply, serving as food for the bacteria to keep them alive. Now, these lactic acid bacteria serum with sugar or molasses will be your pure culture. To use, you can dilute this pure culture with 20 parts water. Make sure water is not chemically treated with, like chlorine. Remember, we are dealing with live microorganisms and chlorine can kill them. This diluted form 1:20 ratio will be your basic lactic acid bacteria concoction. Two to four tablespoons added to water of one gallon can be used as your basic spray and can be added to water and feeds of animals. For bigger animals, the 2-4 tablespoons of this diluted lactic acid bacteria serum should be used without diluting it further with water. Lactic acid bacteria serum can be applied to plant leaves to fortify phyllosphere microbes, to soil and compost. Of course, it will help improve digestion and nutrient assimilation for animals and other applications mentioned before. For any kind of imbalance, be it in the soil or digestive system, lacto bacilli can be of help.
One of the popular beneficial microorganism innoculants from Japan (EM) contains lactic acid bacteria as its major component, including photosynthetic bacteria, yeasts, actinomycetes and fermenting fungi. These are pure culture imported from Japan and can be subcultured through the use of sugar or molasses. These other microbes can be cultured in several ways by farmers themselves.