New Grower Theoretical Cannabis - Various Hypothesis

Thank you for that brother!Very interesting.
A bit out of topic, but do you believe that the hypothesis, according to which pheromones released by flowering plants can provoke the flowering of other plants (seedlings and young plants) that are nearby, is valid?
I am not too sure what your theoretical knowledge on pheromones is, but I thought I would bring that up as I think I might be experiencing that phenomenon, having an old plant still flowering, near seedlings.
Anyways, looking forward to reading your reply, and appreciating the work you are doing.
Thank you!
Peace,

Hello, thanks for saying hi !
I had a fungus gnat problem and had to reset, but I just got my Nematodes last week. For practical purposes it would be best if I did 1 gallon Micro Grows, but I'm still going to stick to the Stone Dragons to help my chances of finding 2-3 plants with the same Phenotype.
To answer more directly, I do believe it to be a valid and testable hypothesis - with few complications.
The hardest part will be isolating what exactly causes the reaction, a chemical compound or an Anomalous Phenomena (this is why I need multiple plants of the same Pheno).
Something to consider - If you place fruit together in a bag, they all ripen together, quickly. This is because the fruit is giving off ethylene gas which enhances ripening.
I think something similar happens with Cannabis - however the effects are often over looked & negated by exhaust and ventilation systems.
Not to mention the actual deed of harvesting and manicuring is almost always done in a different room, far from growing and maturing plants.
 
Primary Perception - Bio Communication with plants, Living Foods, and Human Cells.
In February 1966, Backster attached polygraph electrodes to a Dracaena Cane Plant, to measure at first the time taken for water to reach the leaves. The electrodes are used to measure galvanic skin response and the plant showed readings which resembled that of a human. This made Backster try different scenarios, and the readings went off the chart when he pictured burning the leaf, because according to him, the plant registered a stress response to his thoughts of harming it. He conducted another similar experiment where he observed a plant's response to the death of a brine shrimp in another room; his results convinced him that plants demonstrated telepathic awareness. He argued that plants perceived human intentions, and as he began to investigate further, he also reported finding that other human thoughts and emotions caused reactions in plants, which could be recorded by a polygraph instrument. He termed the plants' sensitivity to thoughts "Primary Perception", and published his findings from the experiments in theInternational Journal of Parapsychology in 1968. Soviet scientists invited Backster to the first Psychotronic Association conference in Prague in 1973 and his paper was entitled "Evidence of Primary Perception at a Cellular Level in Plant and Animal Life". After 1973, he further experimented on yogurt bacteria, eggs and Human Sperm and he claimed his results showed "primary perception" could be measured in all living things.


 
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A good way I fight fungus gnats is with about a 1/2 inch layer of pure dry sand on top of the soil and after a week the hatchling can't surface through the crust of the sand and will die in the soil further feed your plants and microorganisms in the soil. Fungus Gnats need moist fertili soil to lay the eggs the crust on top of the soil made from the Dry sand will keep them from laying more eggs and they soon will all die off. When watering break through crusty layer on top the water will flow freely to the bottom of the pot make sure to keep all soil coverd after watering I've done this inside for my autos, photos ,vegetables and had amazing results. I think there is a kind of symbiosis that happens maybe increased smell to ward off pest or increased mold and pest resistance it otherwise wouldn't have without the presence of the fungus gnats. And now off the deep end found some stuff here we go.

The essential oil industry is a billion dollar a year business that does not show any signs of slowing down. Essential oils derived from plants including, but not nearly limited to, mint, basil and thyme are key ingredients in products such as medicines/remedies, aromatic fragrances and flavorings. The demand for these products has been the driving force behind countless research studies conducted with the goal of understanding how and why plants produce these unique chemical compounds and, perhaps of more importance, how growers can significantly enhance or increase the production of said compounds. The research really begins at the apex of essential oil production, the glandular trichome.

Glandular trichomes are best described as tiny, specialized hair-like formations found on the epidermis of plant stems and leaves. At the tip of the hairs are glandular cells that produce, store and eventually, secrete trichome exudates such as essential oils. Nearly all plant species produce some sort of hair-like formation, but only about 30% of vascular plants are equipped with the ability to create these sought after substances known as secondary metabolites. Glandular trichomes come in several different shapes, which are highly species-specific, to the point where they are often a plant characteristic used in the classification and identification of a plant species. Glandular trichomes are not directly connected to a plant’s vascular system and, therefore, are not products of a plants primary metabolism (which will be discussed further on). The production and secretion of essential oils and other secondary metabolites, though highly commercialized for things like aromas and medicines, is believed to be an evolutionary response to external stresses in the surrounding environment, a protective measure of sorts. In order to understand what secondary metabolites are one must first address what they are and why they are produced.

To begin, primary metabolites, produced by the primary metabolism, are compounds that play an important role in basic life functions such as respiration, reproduction, cell division and growth, which are all essential processes that allow plants to properly complete their full growth cycle. Secondary metabolite compounds (such as glandular trichomes) are not directly involved in these types of plant-life functions, but they do serve an important purpose. Secondary metabolites are believed to play a major role in a plant’s ability to adapt to the dangers of their environment. These compounds provide a level of defense against possible antagonists in the surrounding areas as they exhibit properties such as antifungal, antibiotic and antiviral. These properties are the reason the compounds are sought after for medicinal purposes. Not only do secondary metabolites aid in protection from microscopic assailants, they also help protect plants from various insects and animals (some of the compounds secreted can cause severe discomfort when ingested). In addition, they also contain UV ray absorbing compounds that protect the leaves from potential harm from the light. Through evolution, plants began to create several different types of secondary metabolites as means of protection from a vast array of predators and stresses. One of the formations formed for storage and secretion of the secondary metabolites is the glandular trichome. For years, scientists have been working on ways to increase glandular trichome production in numerous plant species in an effort to collect as much of the desired essential oils as is physically possible from a single plant. The question is: if glandular trichomes are the result of a plant’s protective measure against a danger in the environment, how do we simulate the stress and the production of glandular trichome on our plants at home (especially, those grown in controlled environments)?

Basically, a plant’s glandular trichome production potential is the result of genetics developed through interaction with its surrounding environment. Plants that evolved in a more threatening environment, with a high potential for attack by disease or insects, generally have a higher level of glandular trichome production. But this does not mean that, through certain stimuli, production levels cannot be increased. To be clear, I would never suggest releasing harmful pests into a controlled growing environment, but there are measures that can be taken to cause physical stress to a plant without greatly harming the growth cycle. Older leaves and branches can be cut to make the plant think that it is under attack from some type of herbivore type of predator. Growers can also supplement with artificial UV-A or UV-B lighting in an effort to create environmental stress, which could possibly induce higher production levels of glandular trichomes. There are also several fertilizer supplement products that are marketed by their ability to enhance glandular trichome production. I have used a few on my culinary herb garden and have had satisfactory results, however, judging by the product labels, it is hard to pinpoint the active ingredient that provides such results. Studies have shown that the naturally occurring plant hormone Jasmonate plays an important role in triggering the pathways that create secondary metabolites. In a lab, scientists have figured out how to create a synthetic version of the hormone, which is called Jasmonic acid. However, a grower should show due diligence and research any possible harms when considering using a growth-regulating hormone of any type. This is of utmost importance if the plant is intended for eventual human consumption.

Glandular trichomes are an excellent example of the deeply rooted, complex relationship shared between humans and plants. These secondary metabolites are the product of a plant striving to survive in an unforgiving environment. To us, however, they represent so much more. Though we do utilize them for their beneficial medicinal properties, we also regale them for their flavors and aromas. Substances created within glandular trichomes enhance our daily lives and prove that, no matter what, we are still strongly attached to the plants we grow and the nature that surrounds us.
 
uv-b is a needed section of the electromagnetic spectrum for the best cannabis, just like the sun provides. In your discussion so far , no one has mentioned the effect of earths magnetic field
affecting cannabis plants even though they are indoors and on a different light schedule. just like animals they can utilize the magnetic field for seasonal input. uv-b not only produces more glandular trichome's, it also produces more resin to protect the plant, that in turn produces more flavinoids and terpinoids to make it taste and smell better.:2cents:
good thread T9 might be a little over my head.:biggrin:
 
Thank you very much for your reply!
It makes lots of sense, and I would happily do some more research on that topic.
You mentioned the harvesting and the curing, being done in a different room. I am not too sure I understand you correctly, but do you insinuate that harvesting in the same room would have a different consequence than harvesting 'far from growing and maturing plants'?
I am just about to harvest, so I'd gladly take any info I'll receive :)
Thank you for everything!
That last piece of knowledge you shared was highly interesting by the way!
Peace,
 
uv-b is a needed section of the electromagnetic spectrum for the best cannabis, just like the sun provides. In your discussion so far , no one has mentioned the effect of earths magnetic field
affecting cannabis plants even though they are indoors and on a different light schedule. just like animals they can utilize the magnetic field for seasonal input. uv-b not only produces more glandular trichome's, it also produces more resin to protect the plant, that in turn produces more flavinoids and terpinoids to make it taste and smell better.:2cents:
good thread T9 might be a little over my head.:biggrin:

Stuff your modesty in a sack Astro ! :bong: I'd be willing to bet this isn't over your head one bit :coffee: Are you certain about the UV-b information ?
Last I heard the verdict was out, and at the time I considered it to be no more than a marketing ploy. If I remember correctly some folks get all worked up just at the mention of UV-b - despite the dangers/risk being completely manageable. You make me want to try a test ! That would be simple enough! Have you tried growing anything under UV-b yet? Interestingly enough, the link below discusses how plants communicate with electrical impulses, among other things. I think plants have "Spidey Senses" essentially - and being tapped into the Earths Electrical and Magnetic fields makes sense.

Thank you very much for your reply!
It makes lots of sense, and I would happily do some more research on that topic.
You mentioned the harvesting and the curing, being done in a different room. I am not too sure I understand you correctly, but do you insinuate that harvesting in the same room would have a different consequence than harvesting 'far from growing and maturing plants'?

Only in theory, I am certain. To quote the Magic 8 Ball "all signs point to yes". https://student.societyforscience.org/article/plants-“listen”-danger
 
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yes all the panels I use have at least one UV-b diode. why would anyone question uvb as being bad, the sun don't regulate the amount of uvb it just pounds it out.
that's why cannabis grown in tropical or equatorial zone's, or at high altitudes produces the best bud. these locations punch out a lot of uvb. much more than I get here in maine. :biggrin:
 
yes all the panels I use have at least one UV-b diode. why would anyone question uvb as being bad, the sun don't regulate the amount of uvb it just pounds it out.
that's why cannabis grown in tropical or equatorial zone's, or at high altitudes produces the best bud. these locations punch out a lot of uvb. much more than I get here in maine. :biggrin:

Those Spectrums are directly associated with causing cancer.
 
yes all the panels I use have at least one UV-b diode. why would anyone question uvb as being bad, the sun don't regulate the amount of uvb it just pounds it out.
that's why cannabis grown in tropical or equatorial zone's, or at high altitudes produces the best bud. these locations punch out a lot of uvb. much more than I get here in maine. :biggrin:

What kind of light are you using? I want to check my lights now, lol. Hopefully mine have some in them. Doubtful my HPS does, but I wonder about my LED (Mars Hydro)
 
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