Likes
20
Share
Likes
25
Share
The Bio tabs and off-course me😉 are keeping her happy and healthy. Starting from this moment, i'm gonna start with the Bio tabs PK 5-8 and compost thee to give her a little more flower power🌺💪 Rock on Growmies 🌱
Likes
47
Share
Apple Pie. mmmmmm 👋Top is a clean cut, no confusion for the plant, road ahead is clear, by completely removing the main growth tip, the auxin source is eliminated. The plant permanently halts vertical growth from that main stem and immediately sends its energy and hormones to the two new, evenly spaced branches just below the cut. Fimming slightly different because a small tuft of the top growth is left behind, the auxin disruption is temporary and less severe. The plant recovers more quickly and sends its energy to multiple surrounding growth points, often creating four or more new shoots from the same spot. It will eventually regain some vertical dominance after a few weeks if left to its own devices, but with a little more LST, bending the apex to the same height as the rest of the internodes, this shatters dominance, hopefully creating around 8-9 main shoots growing at equal height once recovered and grown out. Reduced environmental intensity for now and let her focus on dealing with this new stress for a week or two. When H+ ions are added to soil, the first nutrient displaced from exchange sites is typically aluminum (Al3+), if it's present, followed by calcium (Ca2+), magnesium (Mg2+), and potassium (K+), because aluminum and these base cations have different binding strengths. The order of displacement depends on the lyotropic series, where ions with a higher positive charge and those with weaker binding strengths are displaced first. The specific order of nutrient displacement is determined by the lyotropic series, which ranks the strength with which cations are adsorbed by soil particles: Al3+: Most strongly adsorbed, so if present, it will be displaced by H+ ions, leading to increased solubility of aluminum and potential plant toxicity. Ca2+: Displaced next, as it is more strongly bound than Mg2+ or K+ but less than Al3+. Mg2+ and K+: Displaced after Ca2+. The displaced nutrients can be lost from the root zone through leaching, becoming unavailable to plants. As H+ ions increase, the proportion of acid cations (H+ and Al3+) on the exchange sites increases, while base cations (Ca2+, Mg2+, K+) decrease, resulting in a lower soil pH. The amount of photosynthesis (water splitting) directly determines the availability of H+ ions (protons) in a plant. 90% of water is for cooling of photosynthetic apparatus the other 10% is split for its H+ among others things. Carbon sugars, like glucose, do oxidize in soil through a process primarily driven by microorganisms, which break down these sugars for energy. This oxidation converts the sugars into carbon dioxide (CO2) through cellular respiration, a key part of the soil carbon cycle, though some carbon may also be incorporated into soil organic matter. The rate and extent of sugar oxidation depend on factors like oxygen availability, the presence of Fe oxides, and soil redox conditions, which can all influence the process. My understanding of why we flush. Just plain water, what does it do? Strips the medium of salts and nutrients making it empty. What does that do? Triggers nutrient recycling within the plant. What's nutrient recycling? It is a natural part of plant senescence, which can be triggered once you know the switches. A 24:1 carbon-to-nitrogen ratio will also trigger. Why won't it trigger autophagy for me? Nitrogen needs to be gone, gone, gone almost. Ammoniacal (organic) nitrogen takes 4-5 times more water to separate it from soil particles than nitrates so what happens is most people jist flush the nitrates, leave all the ammoniacal in there and this prevents autophagy initiating. Nitrogen decays differently depending on its form during the dry. Ammoniacal nitrogen will oxidize in the air, leaving no trace. But nitrates do no decay and turn volatile and smelly and remain trapped until smoked, no matter how long you cure it does not oxidize. This is why you need to trigger it and begin the denitrification process prior to harvest to get rid of all the nitrates. Otherwise, you will smoke it. Flush till autophagy begins, just make sure you add no nitrogen afterwards. Micronutrients for trichomes. Don't leave the medium empty for 2 weeks, that does nothing but reduce yield 10%ish. Trichomes are another thing. Trichomes themselves are not directly affected by flushing; rather, flushing affects the plant's nutrient uptake, which influences the development and final state of the trichomes. Trichomes are filled with antioxidants in the last weeks, which is what makes them cloudy. A lot of the processing of antioxidants requires energy and nutrients (mostly micronutrients ), so you don't want that soil empty for 2 weeks, you just want the carbon nitrogen ratio 24:1and no higher. She still wants what she needs to ripen. Processing antioxidants is energy-intensive; heat and light accelerate the rate at which THC converts to CBN. This is why you lower DLI, lower temps. By doing so, you reduce the oxidative workload caused by photosynthesis, which opens up the oxidative capacity for the production of antioxidants. THC is mostly processed at night when the plant's oxidative capacity is generally moreso "free and available" for work
Likes
134
Share
@Wastent91
Follow
Ehy ragazzi qua tutto bene spero anche a voi lo stesso, le piante di anesia sono magnifiche! Profumi di agrumi della Red pudding e dei buds duri come la roccia! Ho dovuto provvedere a legare tutti i rami con del fil di ferro per sostenere il peso crescente delle cime, purtroppo si vede che all inizio del ciclo non avevo ventilatori etc per poter addestrare i rami in modo che diventassero più solidi e stabili, ora in vece il peso volume di queste cime mi sta piegando l intera pianta! Davvero delle genetiche eccezionali! Con dei profumi davvero complessi da descrivere e non vedo l ora che continuino a maturare per poi avere un finale "di erba perfetta definitiva"! Che purtroppo ancora nn ho mai trovato in circolazione una genetica degna di questo nome... Saranno forse queste di anesia?? Staremo a vedere! Buon 420 a tutti e buon anno nuovo! 😸💪😺🔥💨😎🌱🌿🌲🧑‍🌾💗
Likes
Comments
Share
So it's basically day 66 on BK and day 58 on GG thinking about start to flush them... They look gorgeous and full of trichomes, smell still missing but I'm fine with it... Next update in week
Likes
19
Share
Likes
9
Share
Beginning of second week flowering and plants are shooting up. Added a second ScrOG net and directed all the branches to get more of an even canopy and so the branches aren’t growing on top of each other. I did one last defoliation to remove any shoots/stems/leaves that are struggling for light.
Likes
35
Share
Week 13 has been going very well. Looks like this girl is at the end of her time. She has been yellowing and some of her leaf are starting to get purple. She smells like sweet pineapples. I have been giving her a water only flush this entire week and will cut her down at the end of next week. This has been such a pleasure to grow. I can’t wait till she’s cured and I can finally try her. Girl #2 is officially out of the autoflower category. I will not be showing her on this diary anymore. She’s going to be put on a photo schedule in the next few weeks. Can’t lie, I’m very disappointed. I was looking forward to her coming along and being a very late bloomer. Sadly she never came through and I’m ok with that. Everything is a learning experience to help me be better for future grows. She has been yellowing for some reason so I’m gonna get her sorted before I put her into bloom. Thank you all for viewing my diary I really appreciate all the love and support.
Likes
1
Share
@gse314
Follow
Good progress and defiency maintained
Likes
1
Share
Nose Candi - Harvested Plant Overview — This final image showcases an exceptional harvest result. The plant displays dense, resin-rich colas with a heavy coating of trichomes, signaling high potency and well-developed cannabinoids. The buds are compact, chunky, and carry a stunning mix of deep purple hues, vivid orange pistils, and touches of lime green—a truly striking visual contrast. The sugar leaves and fan leaves are dark purple to nearly black, suggesting strong anthocyanin expression, likely influenced by genetics and possibly cooler environmental conditions during late flowering. The trichome coverage is thick and milky, with some amber likely present, indicating peak maturity at harvest. Overall, this plant appears to have reached optimal ripeness. Bud structure, coloration, and resin production all point to a top-tier result — both visually appealing and potentially very potent. This will likely cure into a beautifully aromatic and flavorful final product. Excellent work!
Processing
Likes
41
Share
We have arrived at the end of week 2 for the 16oz dutch bucket setup and this auto ghost og is doing my pretty well. I topped her on day 10 and started a little training on day 13. I would normally up the feed a little at this point but I have a couple plants in the system that are a week behind, so I am going to give them a few more days to catch up before increasing the dose. They are still getting 24 hour light and 24 hour irrigation. Should start to see a growth spurt by the end of next week as long as I keep them happy.
Likes
14
Share
Topped and pruned this week. Probably too late. Definitely watered a lot less. Be fore I am certain that I Was drowning them
Likes
74
Share
@Hou_Stone
Follow
❄️👋❄️ Depuis quelques temps je ne vois pas beaucoup ma culture car j'ai déménagé et qu'elle ne se trouve plus chez moi. Je passe la voir uniquement pour l'arroser, environ une fois par semaine. J'ajoute du Bioenhancer une fois sur 2. Malgré mon absence les plantes m'ont l'air d'être en bonne forme. Pourvu que ça dure ! ❤️️🤞 Intensité de la FC3000: 90% Ventilation : Extracteur mars hydro 6 pouces avec filtre à charbon puissance : 4/10 (24h/24h) + 3 ventilateurs à l'intérieur ( ON 8/24h). ils s'activent à un horaire différent. 🌟Venez me voir sur Instagram 🌠 https://www.instagram.com/hou_stone420/ 👨‍🚀❄️❄️❄️👋❄️❄️❄️☄️❄️
Likes
3
Share
@BLAZED
Follow
Germination (4-6 to 16-6) Royal Queen Seeds - Haze Berry. Genetics: Blueberry x Shining Silver Haze. 20% THC, 40% Indica, 60% Sativa. 9 to 11 weeks flowering time. Taste: Blueberry, Earthy, Fruity, Pepper. Effect: Long Lasting, Physically Relaxing, Powerful. I chose this strain because i planted one seed a couple of years ago in my yard, it grew very tall (long internodes) and the end product was one of the best tasting weed i smoked till this day. The blueberry taste was far on top! So i decided to try this strain out once again. I'm praying i will have that gem with those terps again! 4-6 Today i put 2 Haze Berry seeds into a wet coffee filter to germinate. 6-6 After 48 hours the 2 seeds are ready to be put into a 0.5L pot filled with some Plagron Lightmix. The lightmix has some nutes for the first 3 weeks or so, i will feed nutes when i transplant them into 18L AutoPots with 70/30 Coco-Perlite. I made a feed with 0.5 gr Calcium and 0.2 ml Rootstimulator per liter. EC: 0.4 PH: 5.8, and watered the pot a bit. I let them stay in the dark untill i see them above the soil. 7-6 After 24 hours they are above the ground and i removed the plastic foil covering the pots. 8-6 Temperature: 19.5 to 24.1 degrees Humidity: 41% to 70% Watering: 20 ml. 9-6 Temperature: 18.8 to 23.4 degrees Humidity: 62% to 74% 10-6 Temperature: 19.4 to 23.9 degrees Humidity: 60% to 74% 11-6 Temperature: 19.4 to 25.2 degrees Humidity: 43% to 71% Watering: 25 ml. 12-6 Temperature: 21.2 to 25.4 degrees Humidity: 44% to 60% 13-6 Temperature: 22.2 to 25.9 degrees Humidity: 44% to 71% Watering: 15 ml. 14-6 Watering: 60 ml. A week later and today is the last day of the germination phase. They are starting to grow faster from now on.
Likes
2
Share
Continued training and caring for the life in the soil... I'm trying to think of it as growing soil more then growing plants
Likes
42
Share
Thank you. Gave her a cocktail to help with stress. Added 1st net for lateral support, not so much now, but for later. Blue light is absorbed by photoreceptor proteins called phototropins, which trigger a hormonal response that causes cells on the shaded side to elongate, making the plant bend toward the light. Try and fill this side a little. She is quite big already, just needs to find her stride again after the undue torture. 5 apex stems with 20-30 mini cola, let them develop a little, with the apical dominance shattered, all those 20-30 will all compete with each other as soon as that stretch is initiated. Key to a good stretch is making sure the plant is cycling efficiently, with large ATP conversions occurring lights out. For now, I'm keeping light intensity high. A plant will slow its vertical growth in very high light intensities, leading to a more compact form with thicker stems and leaves. This response is a protective mechanism against light stress, which can damage the photosynthetic apparatus and lead to symptoms like leaf scorching, yellowing, and brittleness. Instead of growing taller, the plant invests its energy into creating a more robust, stress-tolerant structure. Providing plants with necessary antioxidants helps protect the photosynthetic apparatus by scavenging reactive oxygen species (ROS) that cause damage from excess light. UV light exposure can impact the xanthophyll cycle by either enhancing its photoprotective role or causing damage, depending on the intensity and type of UV radiation. UV exposure can trigger the synthesis of more xanthophyll cycle pigments to increase the plant's capacity to dissipate excess energy, but it can also cause direct damage, particularly to Photosystem II, and may lead to a decrease in the de-epoxidation state (DEPS ratio) which indicates a reduced capacity to dissipate excess energy. Plants can respond to UV stress by increasing the synthesis of xanthophyll cycle pigments, such as violaxanthin and zeaxanthin, to improve their photoprotective capacity. UV-induced changes in xanthophyll cycle pigments can be linked to a plant's overall tolerance to high radiation stress. The xanthophyll cycle helps protect against photoinhibition, which is especially important when the plant is exposed to high levels of both UV and visible light. High doses of UV radiation can directly damage photosynthetic components, including the proteins, lipids, and pigments in the thylakoid membranes. Exposure to UV radiation can have a mixed effect on the de-epoxidation state (DEPS ratio) of the xanthophyll cycle pigments. In some cases, UV can inhibit the conversion of violaxanthin to zeaxanthin, resulting in a lower DEPS ratio and a reduced capacity for energy dissipation. However, the total pool of xanthophyll cycle pigments may increase, and this enhanced pool size could provide a greater potential for photoprotection despite a lower DEPS ratio. The xanthophyll cycle works alongside other mechanisms, such as the accumulation of flavonoids (UV screens), to protect the plant from UV-induced damage. Blue light repairs 100% UV-induced damage in plants through a process called photoreactivation, which uses a light-dependent enzyme called photolyase. This enzyme uses energy from blue and UV-A light to directly reverse the damaging pyrimidine dimers in the DNA caused by UV-B radiation, a key mechanism for maintaining the plant's genetic integrity. After carbon, light, water, temperature, and nutrients, the limiting factor of a plant's growth is often its own internal factors or the amount of a key ingredient. Chlorophyll concentration is one such factor, as the amount of this pigment limits how much light can be captured for photosynthesis. Other factors include chloroplast number, respiration rate, and the concentration of carbon dioxide in the atmosphere, as plants are often in a CO2-deficient condition. 60x60x18=64800seconds x 700 = 45,360,000moles. 45DLI Exposure to 165 µW/cm² of ultraviolet-B (UV-B) light for 3600 seconds = 1 hour, a extremely high, acute dose triggering stress responses and protective mechanisms. . The plant's photoreceptor protein, UVR8, senses the UV-B radiation. This triggers a signaling cascade that activates specific genes to protect the plant from damage. In response to the UV-B signal, the plant ramps up the biosynthesis of protective compounds like flavonoids, phenolic acids, and anthocyanins. These compounds absorb UV radiation and accumulate in the epidermal layers of leaves to shield inner photosynthetic tissues. The plant may increase leaf thickness or deposit more cuticular wax, creating a physical barrier to the radiation. The plant will produce more enzymatic and non-enzymatic antioxidants to neutralize the reactive oxygen species (ROS) produced by the UV-B radiation. The plant activates enzymes, including photolyases, to repair DNA damage caused by the UV-B. These repair mechanisms are critical for preventing permanent genetic mutations. While protective measures are activated, a high dose delivered over a short period can cause stress that overwhelms the plant's defenses. Photosynthesis is highly sensitive to UV-B. A high dose can inactivate Photosystem II (PSII), damage thylakoid membranes within the chloroplasts, and reduce chlorophyll content, which lowers the plant's overall photosynthetic capacity. Despite repair mechanisms, high UV-B doses can inflict persistent damage on the plant's DNA. The overproduction of reactive oxygen species can cause oxidative stress, leading to the oxidation of lipids and proteins and disrupting cellular function.
Processing
Likes
Comments
Share
The genetics in this little lady are very good she stayed short.. All the stretching and bending are paying off right now she has a very nice even canopy .. Well we are gonna start to see some buds getting size now . Can't wait till next I also can't wait for the few bid sites I dusted with some male pollen ..