Plant #1 shows impressive results - the main cola has reached 4.5 cm in diameter and continues to densify. The entire stem is covered with abundant flowering. Natural yellowing of lower fan leaves is observed, which is typical for this flowering stage. Plant #2 (the trailing one) shows good dynamics in bud formation. Estimated harvest time is 2-3 weeks. Plant #3, despite early deficiency issues due to late transplanting and excessive stretching, has successfully recovered. Currently showing active flower formation, especially in the upper canopy. Plant #4 is compact and close to maturity (approximately one week left). Characterized by a large main cola, while side buds are less developed - about 1-1.5 cm in diameter. Trichomes are still white. Considering the strain genetics (8-11 weeks full cycle) and active growth, I maintain daily watering with 1L of flowering nutrients solution.

1/21 at this Stage pure water only 0.2l per day, soil is already prepared with bio Tabs 1/24 switched light to 100% Power

Fertigating once a day , all comments are always appreciated ❤️ Not really having time for these babes , but they still look fine for now

No nutrients this week. Just added some top soil of living soil to help with growth and get the essential nutrients as a seedling. But so far good Growth, I just hope it’s a female 🤞🏾

Slight light burn on a couple plants had to raise the LED. On the off week Light seems to be allot more effective at civering the space although the plants did not take well to the spectrum/heat adjustment so the first two days i had to ween the light on a couple hours at a time. I could tell when they needed a break because they woukd physically get droopy once they got over whelmed eventually they got used to it tho!

Wir befinden uns jetzt in der 7 Woche sie hat deutlich nochmal aufgebaut bin sehr dran interessiert wie das Endresultat ist. Bisher haben sie schon leichte Lila spuren an den Buds hoffe das wird noch mehr. Soweit bin so zufrieden auch wenn ich denke sie sei zu klein.

Putting on weight fast now in peak flower. Love the structure of the plant and really regretting not taking a cutting. Oh well, ce la vie. Will stop adding PK in the next few days before cutting back on nutrients next week then flushing for the last 2 weeks. This plant is at the back of the timelapse.

nice strain with a rich terpene profile! sweet, gelato like, hard hitting smoke! sadly my phenos had no banana taste but still very nice

Plants looking good, stretching 2-3 cm a day now. As mentioned last week, did increase the EC slightly, same ratio, keeping this for the next ~8 days, until stretch slows done and buds start to grow in size. DLI now at 31 will raise it to ~35 in the next 8 days. Last day of this week, removed all leafs below the ScrOG net, set LED to 80% and DLI to 42. Changed fertilization frequency to 5 times per day.

The summer was super wet and humid so she lost 2 of the big buds to mold. Other than that she did great! really big, vigorous and heavy, dense buds. All arround winner. Really looking forward to the seeds. These plants are not mine. I am just documenting them. -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- Set up cost (fixed costs) -Lamp: 40€ -Timer: 3,5€ -Pot: 4€ -Total fixed costs: 47,5€ Given 5 years (or 15 grows) usage time translates to around 3,17€ per grow in materials. Variable costs: -Seeds: 13,17€ -Soil: 6€ -Fertilizer: 3,50€ -Power (100 days 18h/day): ~25,92€ (exact figure after harvest) -Total variable costs: ~38,59€ -Total costs per grow: ~51,76€

End of week 9 and I'm seeing just a few amber trichomes and most of hairs have turned brown so she'll most likely get chopped during week 10.

2nd girl still falls behind, I decided to use a scrog to help her / or help the canopy situation as the height difference and even lighting distribution started to be complicated to mantain got little tip burn so I dialed back and pit Grow aside. From top you can nicely see which girl is which. Margot having more poison green top leaves. Is she angry?

Alles prima

Auto Purple Hulk Auto by MSNL Outside 👉Sponsored Grow👈 W6F2 7/20-26 The hot weather returned with humidity and days of scattered thunderstorms. I fertilized once this week with I49 and top dressed with worm castings since I saw some yellow leaves near the bottom. Thankfully with all the rain we’ve had this month she doesn’t show any deficiencies or bud or root rot. I fertilized with I49 grow 1 tbsp/gal & 2 tbsp I49 Flower. With the extreme heat and rain, my auto Purple Hulk had a huge stretch a full 10 inches this week. At 43 inches, she towers over her friends. There are no deficiencies and demonstrates resistance to fungal diseases. As always, thank you all for stopping by, for the likes and most of all growers love and support. Stay green, growers love 💚🌿 💫Natrona💫

*Pre-flowers have micro trichomes upon formation, LOL. Based on my early observation, I predict that these will be frosty frosty on the trichomes. Added 20lbs of black lava rock as mulch, raising soil temp around 1 and a half degrees to 72.8F. Some nice little bud formations are creeping up already. Nice little foliar spray of some aminos to the underside of the leaf. Hard to guage or know how much the aminos help, but after reading how energy intensive it is for the plant to make them from scratch its something I feel I need to do as a habit. An EC (Electrical Conductivity) meter, one that's made for the soil, it's so useful, as it indirectly indicates soil moisture as well as salt mineral nutrient levels. Just pop your metre stick in the soil and if ec is low, then it's time to water. Once there is water to assist in the conduction of electricity, the EC" will kick back up. 0.3-1.8, if it stays low, then you know it's time to add more mineral salt ferts! While Electrical Conductivity primarily indicates the overall salt content in soil, pH provides information about the relative proportion of cations (positively charged ions) in the soil's salt capacity. High EC signifies a higher salt concentration, while pH reflects the balance of cations like calcium, magnesium, potassium, ammoniacal nitrogen, sodium, and hydrogen. Smaller leaves have less surface area for stomata to occupy, so the stomata are packed more densely to maintain adequate gas exchange. Smaller leaves might have higher stomatal density to compensate for their smaller size, potentially maximizing carbon uptake and minimizing water loss. Environmental conditions like light intensity and water availability can influence stomatal density, and these factors can affect leaf size as well. Leaf development involves cell division and expansion, and stomatal differentiation is sensitive to these processes. In essence, the smaller leaf size can lead to a higher stomatal density due to the constraints of available space and the need to optimize gas exchange for photosynthesis and transpiration. In the long term, UV-B radiation can lead to more complex changes in stomatal morphology, including effects on both stomatal density and size, potentially impacting carbon sequestration and water use. In essence, UV-B can be a double-edged sword for stomata: It can induce stomatal closure and potentially reduce stomatal size, but it may also trigger an increase in stomatal density as a compensatory mechanism. It is generally more efficient for gas exchange to have smaller leaves with a higher stomatal density, rather than large leaves with lower stomatal density. This is because smaller stomata can facilitate faster gas exchange due to shorter diffusion pathways, even though they may have the same total pore area as fewer, larger stomata Sugars, classified as carbohydrates, are composed of the elements carbon (C), hydrogen (H), and oxygen (O). They are characterized by the general formula (CH2O)n, where 'n' represents the number of carbon atoms. The most basic units of sugars, called monosaccharides, have this ratio of carbon, hydrogen, and oxygen. For example, glucose and fructose, both monosaccharides, have the formula C6H12O6. The reality of your typical plant. After harvest, with all water remove,d you are left with. (Ballpark) Mother-nutrients: Carbon 47%, Oxygen 43%, Hydrogen 4%. Macro-nutrients: Nitrogen 3%, Phosphorus1%, Potassium1%, Calcium1%, Magnesium0.5%, Sulfur0.5%. Micro-nutrients: All the rest combined 1% Nothing good can happen in a soil that can't breathe. The aerobic zone in soil is crucial. Microorganisms can break down sugars into their constituent atoms, though they don't typically do so completely to the individual elemental level (carbon, hydrogen, oxygen) in one step. Microorganisms utilize sugars through metabolic pathways like glycolysis and fermentation, converting them into simpler molecules like pyruvate and then potentially to other compounds like lactic acid, ethanol, or carbon dioxide, releasing energy in the process. Glycolysis: This is a central pathway where a glucose molecule (a common sugar) is broken down into two molecules of pyruvate. This process generates some ATP (energy) for the cell. Fermentation: If oxygen is limited, some microorganisms can ferment pyruvate, producing various end products like lactic acid (in lactic acid fermentation), ethanol and carbon dioxide (in alcoholic fermentation), or other organic acids. Further Breakdown: The products of glycolysis and fermentation can be further broken down through other metabolic pathways, potentially leading to the release of carbon dioxide and water, and the extraction of more energy. Not Always to Atoms: While some microorganisms can completely oxidize sugars to carbon dioxide and water, releasing all their energy, others may stop at intermediate stages, producing various organic compounds. Role of Enzymes: Microorganisms use specific enzymes to catalyze each step in these breakdown pathways. In summary, while microorganisms don't typically reduce sugars to individual atoms in one go, they break them down into simpler molecules, releasing energy and potentially forming new compounds as part of their metabolism. In conditions of high CO2 concentration, the pH of a solution or system will decrease, becoming more acidic. Conversely, low CO2 concentrations lead to an increase in pH, making the solution more alkaline or basic. This relationship is due to the chemical reactions involving CO2 and water, which produce carbonic acid and influence the concentration of hydrogen ions, ultimately determining the pH

Hello Growers & Tokers! Roots, roots, roots. At the beginning of the week they got transplanted into their final pot, 11L fabric. Medium used was Light Mix from BioBizz. Synergy from Grotek nutrients was blended in the medium to help out the roots. They were a bit down after transplanting but by the end of the week they were doing better. I'll leave her be for a week then I'll be topping to spread that canopy out and have loads of colas. Or at least that's the idea but two of them seem to be growing faster than the others so I might have to die those tops down. Take care out there and happy growing!