UltravioIet

The anthocyanin master transcription pathways are shared with the terpene linalool. Due to its very low combustion and thermal dissipation, linalool is a terpene that is almost nonexistent in the commercial scene due to the fact that there are no synthetic lines that promote the genetic expression of linalool, as the growing method must use the rhizophagy cycle. Rhizophagy living soil is the only way to bring superoxides into the rhizosphere to make the finest monoterpenes and sesquiterpenes. Done correctly, with full expression, hitting as close to 4.3%-5% energy conversion for maximal expression.

Most cannabis plants during their lifetime will have a week's holiday, a literal week of doing nothing. It's more common than people realize. It's certainly not always the case, and looking at the top of your plant and the new growth ot seems there is an issue other than she went for a holiday. Let's take a peep. Interveinal lime green in newer growth: manganese or iron, both primarily affected by alkaline drift of pH. More likely manganese if there has been recent drought or dry soil. Iron can be a culprit in over-saturated pots, especially when oxygen is low. Plastic pots that deep (not wide) will cause a lot of soil compaction over time if you blanket top water. Plastic pots that size with a plant that big is an immediate red flag if you are trying to push any sort of metabolic runway over 12 to 18 hours. The water supply is not big enough to water just once a day, and massive oxygen shortages in the medium will shut down the electron transport chain every day somewhere after 8 hours. 43% of the dry matter of a cannabis plant is oxygen molecules attached to carbon skeletons, 47% making up 90% of the entire dry matter of the plant; once you add 4% hydrogen, that leaves NPK and all the rest 6% Indoor growers regularly suffocate their roots. Because indoor environments lack natural wind and intense heat to drive rapid evaporation, soil stays wet much longer than it would outdoors. When soil remains waterlogged, the air pockets fill with water, shutting down gas diffusion completely. The roots quickly use up the dissolved oxygen in the water, turn anaerobic, and rot. Plants possess two primary metabolic states often conceptualized as "grow" and "recycle." When your electron transport chain stalls after 6-8 hours because your pot ran out of water, the drought causes daily spikes in EC concentration. This causes a flip-flop of metabolic states; this wastes a lot of ATP, making the transition itself plus the breakdown. Massive hidden energetic drain that many growers completely overlook. Generally, it will appear as brown tip damage. Many growers misdiagnose it as simple "nutrient burn"; it is often actually osmotic tip burn and localized necrosis caused by this exact daily metabolic whiplash. More of a brown tip with a black end to the tip. Breakdown in the chain happens from loss of oxygen via drought or oversaturation; the margins are actually small, that's why porosity of your medium is vital, along with adequate aeration. Breakdowns in EC destroy all bulk flow, and with that, any chance of efficient growth; the plant slumps, anaerobically moves into survival mode until the electron chain can fire back up when water is added and EC balance returns. Access to "uptakable" Iron is often the first to go on an oversaturated medium. Sometimes something as small as being the plant furthest from airflow can make a big difference to "transpirational" load, airflow is also a driver of plant transpiration; the plant that gets 0.5m/s over its lifetime will have moved substantially more water in its life than the plant getting hit with 0.1m/s given they have the same everything else. It's not going to make noticeable changes but over time it will. Over a 20-week lifecycle, the plant under 0.5 m/s airflow will have processed gallons more water, built a thicker stalk to withstand the kinetic stress, and established a much more efficient metabolic rhythm.