Mycorrhiza 101...

jberry

Well-Known Member
Mycorrhiza...


"Endomycorrhiza" is a specific type of mycorrhiza, and "arbuscular mycorrhiza" is just a more specific name for endomycorrhiza.

Arbuscular mycorrhiza (AM) is a mutually beneficial partnership between beneficial fungi and plants. - the plant gets something it needs from the fungus (mostly soil nutrients) and in exchange the fungus gets sugar or carbon.

In just one handful of good soil/coco there are more than 100 million bacteria, several miles of fungal filaments, and another million of algae, protozoa, and nematodes combined. This diverse community is responsible for nutrient cycling and storage and provides competition for disease causing organisms. Soil fungi are the dominant residents of this community, contributing over 50% of the soil biomass. The obvious stars of this living soil are a specialized group of beneficial soil fungi that form an intimate relationship with plant roots. This relationship is called mycorrhiza. Mycorrhiza plays a key role in plant-soil health and functioning.

The AM fungal hyphae increase the amount of soil that the plant roots can "mine" for nutrients and thus increases the soil nutrient uptake. This works most effectively on nutrients that are poorly mobile in the soil. Phosphorus is a particularly "sticky" nutrient and extremely important in plant nutrition so it gets a starring role but mycorrhiza has also been shown to increase the uptake of other poorly mobile nutrients.

Watch Phosphorus

Fertilization Phosphorus plays a major role in the establishment and functioning of the symbiosis. High phosphorus fertilization limits mycorrhiza effectiveness, but low to moderate levels of phosphorus or the use of slow release forms such as rock phosphate maximize plant benefits from mycorrhiza.


Increased Drought and Pest Tolerance

Along with accessing more nutrients, the hyphae also allow greater access to water. In addition, the extensive hyphal network block pest access to roots. The improved plant nutrition of mycorrhizal plants also boosts the plants natural ability to fight drought and pests.


Increased Tolerance to Toxic Heavy Metals:

Mycorrhiza alleviates root stunting typically caused by toxic metals, thereby increasing nutrient uptake. AM fungi may also bind metals in the root zone and alter the plant cells ability to capture the metals.


Improved Soil Aggregation

The AM fungal hyphae has also been shown to excrete gluey sugar based compounds termed "Glomalin" which helps to bind soil particles and create stable soil aggregates, which gives the soil structure and improves water and air infiltration as well as enhance carbon and nutrient storage.


Enhance Biodiversity of Soil Microorganisms

The presence of mycorrhiza also increases the biodiversity of soil microbe populations, which creates a healthy soil ecosystem. What a healthy soil ecosystem means to plants is improved nutrient cycling and retention, improved air and water relations, and importantly resistance to invasion and establishment of disease causing organisms.


BOOST PLANTS "IMMUNE SYSTEM"

All of these benefits are actually interrelated and all work together to make the plant healthy by recreating a "Living Soil".

Mycorrhiza...

Increase Plant Establishment
Sustain Plant Production and Productivity
Reduce Soil Erosion
Reduce Transplant Shock
Reduced Use of Fertilizers and Pesticides
Lower Water Requirement
Increased Soil Aeration and Drainage


How much Mycorrhizae do I need?


Specifying Mycorrhiza, or more specifically, mycorrhizal inoculant (inoculum and inoculant are the same) is like specifying "grass seed." You must specify the right kind in the right amounts in the right form. Just like you would not specify "pounds of grass seed product" per acre you need to specify numbers of ENDO mycorrhiza propagules per acre.

Remember; ECTO mycorrhizal spores will not benefit your ENDO mycorrhizal plants. If you wish for the benefits of mycorrhiza to Pines, Firs and Spruces and certain Oaks you would specify ECTO mycorrhiza as spores. For planting individual seedlings it is most cost effective to apply the correct mycorrhiza or a cocktail of both ENDO and ECTO mycorrhiza to each seedling with a root dip. A mycorrhizal material that does not clarify the specific amount of each kind of spores or propagules in its' inoculants may be "watered down" with cheap material that is not of benefit to your target plants.







This fungus is wholly dependent upon relationships with higher plants and attaches itself to roots in order to obtain carbohydrates which the plant provides. In exchange, mycorrhizae perform a myriad of chores to protect the plant and encourage growth. Most importantly, it grows a complex network of fungal filament that can mine a far greater area of the soil based moisture and nutrients than a naked root. (up to 50 times more area). It also produces a complex by product known as "glomalin" that improves soil structure allowing greater movement of moisture the topsoil and into natural aquifers.





Glomalin is produced by Arbuscular Mycorrhizal Fungi (AMF). Discovered by NRCS Soil Scientists in 1996, "Glomalin", was noted by two characteristics; The first was the apparent abundance of this material that was produced by AMF and the second was the "toughness" of its molecular structure. It was observed that higher levels of "Glomalin" improve water infiltration, increase soil permeability to air, promote greater root development, higher microbial activity and greater resistance to surface sealing (crusts) and erosion (wind / water). It is thought that "Glomalin" helps protect the filaments or hyphae produced by mycorrhizal fungi that collect moisture and nutrients for the host plants. The plants in return, supply large amounts of carbon to the fungi, which in part is used to produce "Glomalin". The carbon sequestration resulting from this process can reach 40% or greater of the total carbon retained within the plant itself.


Limit Use of Fungicides

Some fungicides have been found to damage AM fungi.

Limit Soil Disturbance

Severe disruption of the soil hyphae limits nutrient and water movement into the
plant root.
 

Carbon

Active Member
I hope this is the first in a series.

Now that we have the basic facts, how do we apply in practice?

Carbon
 

jberry

Well-Known Member
there are plenty of products out there, i am currently using Great White by Plant Success and Mykos from Xtreme Gardening... just follow the directions on the label...
the idea is to build the fungi colonies up as large as you can as early in life as posible, i use during veg and bloom but i usually stop using it around week 6 of flower.

this stuff is awesome and my yields have gone up since i started inoculating my garden...

the guy who has grown the largest/heaviest world record pumpkin says that it is all due to inoculating his soil.... he uses the brand "Mykos" .... they also make "Mykos-30" whick contains some other ingredients and organic fertilizer.

compost teas are also a great way to build up colonies.

do you have any specific questions?
 

Shrubs First

Well-Known Member
I hope this is the first in a series.

Now that we have the basic facts, how do we apply in practice?

Carbon
There are several companies selling it, it is usually included in the full line-up of any popular nutrient brand, Advanced Nutes, Humboldt Nutes, Botanicare... You usually have to "brew" the Microzymes and then apply to the soil, after which you supplement with enzymes such as Hygrozyme or SensiZyme from Advanced...
 

aubud

Active Member
This needs to stay 1st page or stickied, this is the advanced section and many people could gain info from that....
DOes this stuff have any application in hydro? your first answer may be no, but think about in the netpot around the hydroton and rockwool....
 

aubud

Active Member
Jesus christ! I cant believe I did this. I tried it out as another member raved about how great it was. Bullshit. Within 6 hours my plants where drooped over, almost dead. I changed out the water and hoped for the best. The plants perked back up but are kind of light colored. The roots still have slimy shit all over them and I dont know what to do. I added some Hydroguard and plants look better but roots are horrible.

You guys think these femd girls will live and grow to flower or become hermies now? :evil:

I believe Rid-X is designed to provide/increase ANAEROBIC bacteria in an ANAEROBIC system - your septic tank. It does this by introducing anaerobic bacteria and food to the tank, as well as using a buffer to raise the pH of the tank to 7.0, which is more condusive to anaerobic bacteria growth.

So if you want anaerobic bacteria (which are the bad slime monsters that eat anything they can get their hands on in an aerobic DWC system) then add Rid-X and feed them with molasses.

You can see the patent for Rid-X here:

http://www.google.com/patents?hl=en&lr=lang_en&vid=USPAT4529701&id=Ggc8AAAAEBAJ&oi=fnd&dq=rid-x+and+septic+systems&printsec=abstract#v=onepage&q=rid-x and septic systems&f=falsehttp://www.google.com/patents?hl=en&lr=lang_en&vid=USPAT4529701&id=Ggc8AAAAEBAJ&oi=fnd&dq=rid-x+and+septic+systems&printsec=abstract#v=onepage&q=rid-x%20and%20septic%20systems&f=false

Hope u didnt already! not sure how it works in soil, but i cringed when i heard this guys story with dwc
 

Schmarmpit

Well-Known Member
No I did not, but thanks for the reply. I always wondered about that stuff. I'm close to harvest and there is no point in messing around with things now.
 

jberry

Well-Known Member
This needs to stay 1st page or stickied, this is the advanced section and many people could gain info from that....
DOes this stuff have any application in hydro? your first answer may be no, but think about in the netpot around the hydroton and rockwool....
GREAT WHITE claims that it works well in hydro systems and i know some pros on here can agree on that. (I think they can colonize in the root mass)

some of these products have directions for foiliar spray feedings.... this way it wouldnt matter what grow method you use. (i have never tried this myself tho)

I'm growing in pure Canna Coco and the colonies can really thrive in this stuff. The MYKOS comes in a oversized tea bag and i suspect that the colonize can build up right in the tea bag that floats in the rez.
 

jberry

Well-Known Member
Terminology of commonly used soil Microbes
Algae: Slime, single or multi-celled organisms that are photosynthetic that absorb nitrogen from the air and release oxygen.


Soil Bacteria:
single or multi-celled soil organisms that breakdown organic matter, mineralize nutrients that are locked up in soil and fix nitrogen from the air. Most of the beneficial bacteria are aerobic or require oxygen to survive.Othersare "anaerobic" and produce toxins such as alcohols and stinky sulfur compounds.A group known as "actinomycetes" actively thrive in the soil, eating dead vegetation, fungi and other organisms.The smell of "fresh garden soil" is a sign of an actinomycetes presence.
Fungi: Organisms known as "saprophytic" fungi break organic matter down.Others known as "mutualists" such as mycorrhizae can solubilize and transfer nutrients to host plants."Pathogens" or parasitic fungi live of plants, destroying roots and often killing the host plant


Nematodes:
Small ugly wormlike animals that feed on many organisms in the soil including other nematodes.Parasitic nematodes attach to plant roots and suck nutrients out of the host.


Protozoa:
Single celled animals that mineralize nutrients, eat bacteria, poop out nitrogen and feed on many pathogens.


Arbuscular Mycorrhizae (AM): Soil-Root-Fungus comprises 90% of living biomass in healthy soils.They facilitate the services of several other beneficial organisms by providing nutrients and moisture to host plants. Plants then release carbohydrates into the soil or deposit leaf litter to complete the "Nutrient Cycle" Mycorrhizal fungi directly or indirectly supply 11 of the 14 necessary nutrients found in soil.If soil microbes were a football team, mycorrhizae would be the "quarterback".

Azosprillum:
A member of the "Diazotrophic" family of bacteria that removes nitrogen from the air.Azosprillum bacteria are naturally more common in tropical and semi tropical areas where poor soil and climatic conditions have created a strong dependence by plants on these microbes for a supply of nitrogen (N 2) which they convert to ammoniacal (NH4) that becomes available to plants.

Glomalin:
A carbon based substance secreted by mycorrhizal hyphae.Recently identified in 1995, "glomalin" is known to be a soil super glue, improving aggregation, increasing moisture storage and providing a food source for nitrogen fixing bacteria.Glomalin is also a carbon sink as mycorrhizal plants will remove 30% more CO2 from the air than non mycorrhizal plants.

Hyphae:
Thin threadlike filaments that mycorrhizal fungi produce.These grow outward from the roots of host plants and extract moisture and nutrients from areas far beyond the reach of the root system. Moisture and nutrient acquisition can be increased by 40 to 50 fold over non mycorrhizal plants!!!

Hypoxia:
The scientific term for the dead zones created around the continent from chemical pollution.A significant amount of the contamination is from nitrogen and phosphorus fertilizers.

Isolate:
A selection of a natural organism that has been made because of a specific property or characteristic.All the Symbios organisms in both AZOs and Mykos are isolates selected for improved growth, yield, moisture management and disease suppression qualities.

Soluble fertilizers:
Plant nutrients that have been processed with acids to become salts.This allows them to be highly soluble in water.Soluble fertilizers feed plants directly, supplying nutrients to the roots, but because salts are also sterilants, they kill off many beneficial organisms.

Organic fertilizers:
Nutrients bound by a carbon-oxygen and hydrogen atom.Release generally requires biological activity which increases soil dynamics as well as nutrient supplies to plants

Fertilizers:
The 14 elements or minerals required to support healthy plant growth

Primary nutrients:
Nitrogen, Phosphorus and Potassium

Secondary nutrients:
Calcium, Sulfur and Magnesium

Micro-nutrients:
Iron, Zinc, Copper, Manganese, Boron, Chlorine, Molybdenum and Selenium

Nutrient Mineralization:
Acquisition of these fourteen elements through microbial action including those of bacterial, fungal and several other organisms.







Nitrogen Fixing Microbes: - Bacteria and cyanobacteria

Bacteria: - Rhizobium, Azospirillum, Azotobacter, Azotococcus etc...

Cyanobacteria: - Anabena, Nostoc, Cleptonema etc...

Phosphate solubulizing Microbes: - Such as Bacillus megaterium, Bacillus subtilis, xanthomonas and pseudomonas are used.

Mycorhiza: - Fungal Biofertilizers.

The spores of vesicular-arbuscular mycorrhizas fungi like Glomous, Gigaspera, Acaulospora, and Endogone are used.

Nitrogen fixing Microbes:-

Nitrogen is the most abundant element in our atmosphere. It is a vital element as many classes of compounds essential to living systems are nitrogen containing compounds. Nitrogen is a primary nutrient for all green plants, but it must be modified before it can be readily utilized by most living systems. Nitrogen fixation is one process by which nodules nitrogen is reduced form ammonia. This complex process is carried out by nitrogen fixing bacteria present in the soil.

Rhizobium Biofertilizers: - (Nitrogen Fixing Microbes)

Bacteria of the genus Rhizobium play a very important role in agriculture by inducing nitrogen fixing nodules on the roots of legumes such as peas, beans, clover, green gram, ground nuts and soybean etc… Rhizobium can fix atmospheric nitrogen only in the root nodules of legumes. The nodules are the sites of nitrogen fixation. In most cases the rhizobia bacteria produces indole acetic acid (IAA) as stimulatory substance.

These Bacterial cells multiply and colonize inside the plant roots. Then they become dormant cells called Bacteroid. These bacteroids are capable of N2 fixation. The bacteria obtain their nutrients and source of energy from the plant and in turn fix atmospheric nitrogen and make it available to the plant. The nitrogen is fixed in the nodules with the help of the enzyme nitrogenase.

Azotobacter Biofertilizers: - (Nitrogen Fixing Microbes)

Azotobacter is a free living nitrogen fixing bacterium, which is used as a biofertilizer in the cultivation of most crops. Azotobacter is effective in increasing yields of crops in well menured soil with high organic matter content. It is also known to synthesized biologically active substances such as B-vitamins, indole acetic acid and gibberellins in pure cultures.

These attributes of Azotobacter explain the observed beneficial effect of the bacteria is improving seed germination, plant growth, plant stands, and vegetative growth.

Azospirillum Biofertilizers :- (Nitrogen fixing microbes)

Azospirillum may be important in colonization of the plant root by the bacteria swimming motility in Azospirillum is thought to play a role in the movement of the bacteria toward the plant roots, and chemotaxins to plant roots exudates is presumed to be initial stage of colonization. Swarming across the surfaces of the roots may be important for long term colonization.

Cyanobacterial Biofertilizers: - (Nitrogen Fixing Microbes)

Cyanobacteria (Blue Green Algae) constitute an important group of micro organisms capable of fixing atmospheric nitrogen. Most of the nitrogen fixing blue-green algae belongs to the order. Nostoc, Anabaena and chlorogloea etc...

Phosphate Solubulizing Micro organisms:-

Next to nitrogen phosphorus is another key element in plant metabolism and soil metabolism and in soil microbiological process. Phosphorus is an essential in seed formation and occurs in large quantities in plant, seed and fruit. Two symptoms of phosphate deficiency are produced on is plant size reduces and deep green color of the leaves.

Phosphate Solubilization:-

The most important aspects on phosphorus cycle are microbiological process of mineralization, solubilization and immobilization besides chemical fixation of phosphorus in soil.

The results of many laboratory studies have implicated the activities of soil micro organisms in the solubilization of inorganic soil phosphate. Solubilization is due to microbial production of organic and inorganic acids which effectively dissolved inorganic phosphates and render them available to the soil flora and growing plants. In other words, phosphate solubilization is the process to dissolution of insoluble form of phosphate to soluble form by the action of microorganisms.

Many micro organisms produce lactic acid, glycolic citric and acetic acids which can solubilize such compounds as tricalcium phosphate, synthetic apatite and natural apatite microbial solubilization of inorganic phosphatic compounds is of great economic importance in plant nutrition phosphate solubulizing bacteria and fungi play an important role it converting insoluble phosphate compounds such as rock phosphate bone meal and basic slag, and particularly chemically fixed soil phosphorus into available form. These special types of micro organisms are termed as phosphate solubulizing micro organisms.

Phosphate solubulizing organisms involved influence the phosphate solubulizing rate in the soil. Bacillus megaterium, pseudomonas putida are the phosphate solubulizing Bacteria respectively fungi (VAM) are better solubuilizers than bacteria and other organisms.

Mechanisms of Phosphate Solubilization:-

The solubilization of phosphate by micro organisms is attributed to excretion of organic acids like citric, glutamic, succinic, lactic, oxalic, glyoxalic, maleic, fumaric, tartaric and alpha keto butyric. Bacillus megaterium and other micro organism's weather rock phosphate and tricalcium phosphate by decreasing the particle size reducing it to nearly amorphous forms. The action of organic acids has been attributed to their ability to form stable complexes with metallic elements. In addition to phosphate solubilization they can mineralize organic phosphate into a soluble form.

vesicular-arbuscular mycorrhizas fungi Biofertilizers:-
Vasicular arbuscular mycorrhiza (VAM) is by far the most widespread types of mycorrhiza the VAM fungi penetrate into the cortical host cells, but the invading mycelium usually lives only a short time intracellular. VAM fungi do not form sheath as around the root, but a network of extrametrical hyphae usually develops. This grows into the soil and can extend the mycelium several centimeters beyond the root surface. The total hyphal length can reach more than one meter of hyphae per infected root.

  • There is an increased uptake of nutrients and water transport from soil, particularly in fertile soil and thus an increase in plant growth.
  • Mycorrhizal roots may affort protection to trees and annual plants from infection by feeder root pathogens which either reduce or kill growth in plants (Biological Control).
  • Mycorrhiza makes plants drought and frost resistant.
  • The VAM or ectomycorrhizal fungi control the disease by producing antibiotics or root exudation which favours the growth of mycorrhized fungi. There are evidences that the mycorrhizal fungi also produce oxalic acid in sufficient quantities which suppress the growth of pathogenic fungi selectively.
 

jberry

Well-Known Member
Mycorrhizal products, pitfals and promise...

Myths about Mycorrhizae:


The sale of mycorrhizal inoculums is currently under regulated. There are several companies promoting products that have little no infective potential. Some companies also make ridiculous and unsubstantiated claims while others confuse end users by including ecto-mycorrhizal fungi which are of no use to any plants other than spruce, pine and few other trees.


Mycorrhizal Inoculants:


which are beneficial? Some products have both endo mycorrhizae and ecto-mycorrhizae listed on the label. Ecto mycorrhizae inoculum has huge spore counts with concentrations of 80 million or more per c.c. It is therefore inexpensive to add a little and report large spore counts in a product. They are however only of value to most conifers and a few hardwoods. Endo mycorrhizae forms beneficial associations with over 80% of all plants including most commercial fruit and vegetable crops (except the brassica (cabbage), chenopod (spinach and beets). Pigweed and other members of the Amaranthae family are also not able to form mycorrhizal associations.


Mislabeling:


There are very few mycorrhizal taxonomists that can tell the difference between different species of arbuscular mycorrhizae. Some products claim species that are difficult to culture, others will claim two species such as Glomus intraradices and Glomus aggregatum knowing full well that they are the same species.


Not All Mycorrhizal Fungi are Beneficial:


Like populations of any species, there are families and isolates that have particularly valuable traits. Isolates should be selected for improving plant biomass or improving plant health. Five of the species / isolates currently under production are accessed from INVAM, at the U of WV, an internationally recognized source of pure mycorrhizal cultures. The one other isolate, Glomus intraradices 801 is a selection from Native Plants, Inc, a pioneer in the scientific assessment of beneficial mycorrhizae. It is probably the most well studied and recognized isolate in academic research.

Application Rates:


Infectivity by even the most potent inoculum requires at least 20 spores for seed and 100 to 200 spores per transplant.

Delivery Methods:


Mycorrhizal inoculants cannot effectively be applied through a spray application, a drip system or as crushed tablets. The spores and other propagules must be cultured in a dry medium and when this is ground down to pass through a nozzle, crushed to form a tablet or purported to be present as something other than spores, the information is false.
 

jberry

Well-Known Member
Common Mycorrhizal products tested Article Details Last Updated
15th of June, 2009



Products were tested by Western Labs. The lab tests 50ml samples of product. To put the data into perspective Ron Wallance, a well known Giant Pumpkin grower, had his cover crop soil tested. His spore count was 600, showing that common Mycorrhizal products are lacking in potency. Although Western Labs has said that anything above 30 is considered 'good'.
The product from RTI that appears in these charts is Pumpkin Pro. We settled on the 3000 figure because our counts varied from as high as 10,000 and down to 1500.






RTI Products....

 

jberry

Well-Known Member
How does mycorrhizae prevent root pathogens ...

In a natural ecosystem where the uptake of phosphorus is low, a major role of mycorrhizal fungi may be protection of the root system from endemic pathogens such as Fusarium spp. Mycorrhizae may stimulate root colonization by selected biocontrol agents, but our understanding of these interactions is meager. Much more research has been conducted on the potential effects of mycorrhizal colonization on root pathogens. Mycorrhizal fungi may reduce the incidence and severity of root diseases. The mechanisms proposed to explain this protective effect include:

(i) development of a mechanical barrier-especially the mantle of the EM-to infection by pathogens,
(ii) production of antibiotic compounds that suppress the pathogen,
(iii) competition for nutrients with the pathogen, including production of siderophores,
(iv) induction of generalized host defense mechanisms.
 

jberry

Well-Known Member
Microbial inoculants also known as soil inoculants are agricultural amendments that use beneficial microbes (bacteria or fungi) to promote plant health. Many of the microbes involved form symbiotic relationships with the target crops where both parties benefit (mutualism). While microbial inoculants are applied to improve plant nutrition, they can also be used to promote plant growth by stimulating plant hormone production (Bashan & Holguin, 1997; Sullivan, 2001).
Research into the benefits of inoculants in agriculture extends beyond their capacity as biofertilisers. Microbial inoculants can initiate systemic acquired resistance (SAR) of crop species to several common crop diseases. So far SAR has been demonstrated for powdery mildew (Blumeria graminis f. sp. hordei, Heitefuss, 2001), take-all (Gaeumannomyces graminis var. tritici, Khaosaad et al., 2007), leaf spot (Pseudomonas syringae, Ramos Solano et al., 2008) and root rot (Fusarium culmorum, Waller et al. 2005).



Rhizobacterial inoculants

The rhizobacteria commonly applied as inoculants include nitrogen-fixers and phosphate-solubilisers which enhance the availability of the macronutrients nitrogen and phosphorus to the host plant. Such bacteria are commonly referred to as plant growth promoting rhizobacteria (PGPR).
Nitrogen-fixing bacteria

The most commonly applied rhizobacteria are Rhizobium and closely related genera. Rhizobium are nitrogen-fixing bacteria that form symbiotic associations within nodules on the roots of legumes. This increases host nitrogen nutrition and is important to the cultivation of soybeans, chickpeas and many other leguminous crops. For non-leguminous crops, Azospirillum has been demonstrated to be beneficial for nitrogen fixation and plant nutrition (Bashan & Holguin, 1997).
For cereal crops, diazotrophic rhizobacteria have increased plant growth (Galal et al., 2003), grain yield (Caballero-Mellado et al., 1992), nitrogen and phosphorus uptake (Galal et al., 2003), and nitrogen (Caballero-Mellado et al., 1992), phosphorus (Caballero-Mellado et al., 1992; Belimov et al., 1995) and potassium content (Caballero-Mellado et al., 1992).
Phosphate-solubilising bacteria

To improve phosphorus nutrition, the use of phosphate-solubilising bacteria (PSB) such as Agrobacterium radiobacter has also received attention (Belimov et al., 1995a; 1995b; Singh & Kapoor, 1999). As the name suggests, PSB are free-living bacteria that break down inorganic soil phosphates to simpler forms that enable uptake by plants.
Fungal inoculants

Several different fungal inoculants have been explored for their benefits to plant nutrition. The most commonly investigated fungi for this purpose are the arbuscular mycorrhizae (AM). Other endophytic fungi, such as Piriformis indica can also be beneficial (Waller et al., 2005).
Composite inoculants

The combination of strains of Plant Growth Promoting Rhizobacteria has been shown to benefit rice (Oryza, Nguyen et al. (2002)) and barley (Hordeum, Belimov et al. (1995a)). The main benefit from dual inoculants is increased plant nutrient uptake, from both soil and fertiliser (Bashan et al., 2004; Belimov et al. 1995a). Interestingly, multiple strain inoculants have also been demonstrated to increase total nitrogenase activity compared to single strain inoculants, even when only one strain is diazotrophic (Lippi et al., 1992; Khammas & Kaiser, 1992, Belimov et al. 1995a).
PGPR and arbuscular mycorrhizae in combination can be useful in increasing wheat growth in nutrient poor soil (Singh & Kapoor, 1999) and improving nitrogen-extraction from fertilised soils (Galal et al., 2003). In salinised soils, Rabie (2005) found that inoculating AM-infected Vicia faba plants with Azospirillum brasilense amplified the beneficial effects of AM inoculation.
 

jberry

Well-Known Member
Here is a great TED talk with Paul Stamets who wrote Mycelium Running, a great read FYI.

http://www.ted.com/talks/view/id/258


I want to try http://www2.mailordercentral.com/fungi/Prodinfo.ASP?NUMBER=HMME1O&VARIATION=&AITEM=1&MITEM=1 for my next grow with KaBoom Seeds from Subcool. Has any one else tried this?

im waiting for my ka-boom seeds right now.......... i know Subcool is only releasing them in small test amounts at this point.......

i'll let you know how they work out in a couple months, i hope its a winner!
 

Apache

Well-Known Member
im waiting for my ka-boom seeds right now.......... i know Subcool is only releasing them in small test amounts at this point.......

i'll let you know how they work out in a couple months, i hope its a winner!
Same here, I should have the seeds here by mid December. I will keep an eye out for a Grow log form you.

Thank you so much for posting all of this info on here!

Cheers,
 
Top