Runoff ph is a bit high this time. Don’t know why. Around 6.8. Average ph going in is 6.0. Also the big fan leaves on ice cream cakes are kind of strange shaped. Will see how they are going to look later.

Três das quatro plantas estão com sementes, acabei colhendo uma delas e as outras três vou colher semana que vem :(, para minha sorte eu tenho um lindo clone da única que não se tornou hermafrodita :(, foi muito difícil controlar o clima não sei aonde errei

Woche 2

Hallo zusammen 🤙. Sie wächst sehr schön und macht keine Probleme. Rabattcode für den BIOTABS-Webshop https://biotabs.nl/en/shop/ GDBT420, damit erhalten Sie 15 Prozent

i run in a bit calmag defiency i dont know why, my only guess is overwatering, other plant (tangiematic) didnt have this problem with same feeding. maybe the light was too close and burned a bit faster trough the calmag as it has 2.75 par.

Week 11-12 going good alot of Leaf growth had to trim to prevent mold ..looking

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.

On flush regime, water only, no nutrients, only a soil cleaning solution. Still has some clear trichomes, a few milky and no browns. Guess it has to flower 1 or 2 weeks more. Full history of the setup on week 1.

Dont underestimate the potency of the smoke on this girl. It can be unreal if you dont respect it. I smoked a whole blunt of it and expected not to get my head taken off. Lets say I wont make that mistake again. Good Job Fast Buds - another potent fast beast!

Another steady week of bud development. I haven't really done much with those apart from the occasional removal of yellow leaves and tucking nuisance leaves under the net. The plants are all still growing in line with the previous expectations, with Topping and LST being the biggest, Mainlined next and then LST only in last place. It will be interesting to see the results though. Should only be a few more weeks until harvest, as a large majority of trichomes are already milky.

10/21 Day 23 Trained with bend and secure, keeping her short-ish. Nodes coming up nicely, color is good, not watering till tomorrow just not quite ready for it. Grow baby grow! 10/22 Feeding Big Bloom 3tsp - Fish Mix 1tsp - CalMag 1tsp - Recharge 0.5tsp - Fish Sh!t 0.5tsp / Gal at 6.5 ph for 0.5 gal She is entering flower so breathing a little easier. Changing to flowering nuets next feed 10/24 Moved to Flowering tent! Trained and looking pretty Water tomorrow 10/25 Looking in on Krisabel this morning something caught my eye. Seems I put her in a 5 gal. not a 3! Woot! Use the room little lady! 10/26 Taking a look this morning spotted a mag deficiency as it appears, will foliar spray mag at lights out. Feeding time! Cal-Mag 5ml - Big Bloom 15ml - Bio-Grow 5ml - Bio-Bloom 5ml - Fish Sh!t 4ml / Gal at 6.35 ph for 0.5 gal

:) Day 72 ~2.25L per plant - 56ml Sensi Bloom A / 56ml Sensi Bloom B / 28ml B-52 / 28ml Bud Candy / 28ml Overdrive - 14L Mix ~ 2.25L per plant Day 75 ~2.5L per plant - 56ml Sensi Bloom A / 56ml Sensi Bloom B / 28ml B-52 / 28ml Bud Candy / 28ml Overdrive - 15L Mix ~ 2.25L per plant

Started giving the girls 1 hour a night at sub 60. By end of week it's up to 2 but will not exceed this. Added top dressings of azomite, sea kelp and greensand. Phi=1.618 The ratio or proportion, determined by Phi (1.618 …) was known to the Greeks as the “dividing a line in the extreme and mean ratio” and to Renaissance artists as the “Divine Proportion” It is also called the Golden Section, Golden Ratio and the Golden Mean. e = 2.718 The “e” symbol in maths represents Euler’s number which is approximately equal to 2.718 It is considered as one of the most important numbers in mathematics. It is an irrational number and it cannot be represented as a simple fraction. THORIUM Thorium, at atomic number 90, is one of the rarest elements. 232Th is a primordial nuclide, having existed in its current form for over ten billion years; it was formed during the r-process, which probably occurs in supernovae and neutron star mergers. These violent events scattered it across the galaxy. The letter "r" stands for "rapid neutron capture", and occurs in core-collapse supernovae, where heavy seed nuclei such as 56Fe rapidly capture neutrons, running up against the neutron drip line, as neutrons are captured much faster than the resulting nuclides can beta decay back toward stability. Neutron capture is the only way for stars to synthesize elements beyond iron because of the increased Coulomb barriers that make interactions between charged particles difficult at high atomic numbers and the fact that fusion beyond 56Fe is endothermic. Because of the abrupt loss of stability past 209Bi, the r-process is the only process of stellar nucleosynthesis that can create thorium and uranium; all other processes are too slow and the intermediate nuclei alpha decay before they capture enough neutrons to reach these elements. Histogram of estimated abundances of the 83 primordial elements in the Solar system Estimated abundances of the 83 primordial elements in the Solar system, plotted on a logarithmic scale. Thorium, at atomic number 90, is one of the rarest elements. In the universe, thorium is among the rarest of the primordial elements, because it is one of the two elements that can be produced only in the r-process (the other being uranium). POTASSIUM Potassium 40 is a radioisotope that can be found in trace amounts in natural potassium, is at the origin of more than half of the human body activity: undergoing between 4 and 5,000 decays every second for an 80kg man. Along with uranium and thorium, potassium contributes to the natural radioactivity of rocks and hence to the Earth heat. This isotope makes up one ten-thousandth of the potassium found naturally. In terms of atomic weight, it is located between two more stable and far more abundant isotopes (potassium 39 and potassium 41) that make up 93.25% and 6.73% of the Earth total potassium supply respectively. With a half-life of 1,251 billion years, potassium 40 existed in the remnants of dead stars whose agglomeration has led to the Solar System with its planets. Potassium 40 has the unusual property of decaying into two different nuclei: in 89% of cases beta-negative decay will lead to calcium 40, while 11% of the time argon 40 will be formed by electron capture followed by gamma emission at an energy of 1.46 MeV. This 1.46 MeV gamma ray is important, as it allows us to identify when potassium 40 decays. The beta electrons leading to calcium, however, are not accompanied by gamma rays, have no characteristic energies and rarely make it out of the rocks or bodies that contain potassium 40. Beta-minus decay indicates a nucleus with too many neutrons, electron capture a nucleus with too many protons. How can potassium 40 simultaneously have too many of both? The answer reveals one of the peculiarities of the nuclear forces. Everyone has roughly 140g of potassium = 0.016 grams of Potassium 40 = 5.643ounces The charge radius is a fundamental property of the atomic nucleus. Although it globally scales with the nuclear mass as A1/3, the nuclear charge radius also exhibits appreciable isotopic variations that are the result of complex interactions between protons and neutrons. Indeed, charge radii reflect various nuclear structure phenomena such as halo structures6, shape staggering7, shape coexistence8, pairing correlations9,10, neutron skins11, and the occurrence of nuclear magic numbers5,12,13. The term ‘magic number’ refers to the number of protons or neutrons corresponding to completely filled shells. In charge radii, a shell closure is observed as a sudden increase in the charge radius of the isotope just beyond magic shell closure, as seen, for example, at the well-known magic numbers N = 28, 50, 82 and 126 (refs. 5,12–14). In the nuclear mass region near potassium, the isotopes with proton number Z ≈ 20 and neutron number N = 32 are proposed to be magic on the basis of an observed sudden decrease in their binding energy beyond N = 32 (refs. 2,3) and the high excitation energy of the first excited state in 52Ca (ref. 1). Therefore, the experimentally observed a strong increase in the charge radii of calcium4 and potassium5 isotopes between N = 28 and N = 32, and in particular the large radius of 51K and 52Ca (both having 32 neutrons), have attracted substantial attention. https://www.nature.com/articles/s41567-020-01136-5.pdf “A cat has 9 lives” “On cloud 9” “Dressed to the nines” To go “the whole nine yards” “A stitch in time saves nine” “Nine-ness” seems to be synonymous with the maximum, with the furthest extent of what’s possible. With fullness, completion, and when every effort has been exhausted. In the ancient world (which is, let’s face it, is where numbers and their spiritual power were understood SO much more than they are today) the number 9 resonated with sacred structure, and the furthest limitations of this world, before human experience meets the Divine. Perhaps more than any other, the number nine had an extra special significance, which spread far and wide. It features across pretty much all cultures, worldwide, rippling through culture, mythology, history, law and time. Nine is the central number in the ancient Celtic tradition. Nine expresses through the triple Goddess (see Number 3) and in myths of the nine Celtic maidens, or sorceresses. In fact, stories of nine mystical women presiding over nature spread from England, Ireland and Wales, to Scandinavia, Iceland and even as far as Kenya. Even today, it’s tradition for nine groups of nine men to dance around Beltane fires. The limit of winter (which is what Beltane Almost all of the mythological tales from around the world have patterns of the number 9 weaving throughout. The Northern European sagas tell of Odin, who rules over the nine Norse worlds. His trial, to win the secrets of wisdom for mankind, was to hang on the Yggdrasil tree for nine days. Demeter, the Greek Goddess of the Earth searched for nine days for her daughter Persephone (who was in the underworld with Hades). Demeter is often depicted holding nine pieces of corn. Once recovered, Persephone was obliged to spend three months per year below the ground, and nine months above. Native American, Mayan and Aztec myths tell of a total of nine cosmic levels (and many of the temples comprise 9 stories). And in ancient China, nine was the most auspicious number of divine power: the Chinese had nine sacred rites, nine social laws, nine classes of officials in the government and built nine-story pagodas. In astrology, the planet Mars vibrates to the frequency of the nine. The ninth sign of the Zodiac is Sagittarius (where the Sun sails from November 22nd – December 21st) In Tarot, card number nine is the Hermit. In Hinduism, nine is the number of Brahma. In the Greek Sagas, the city of Troy was under siege for nine years.

Entering the 11th week and she is still filling in slowly but surely! I did some more LST to tie down some branches even further and open up the spacing between colas to allow light to get in to lower buds. I also did some defoliation as she is super bushy. This variety has been know to take a little longer to finish and she is right in line with that. I am honestly thinking another three weeks at least before harvest.

10 weeks total for the first phenos and a bit more than 11 for the last one! I could have easily gotten double the projected yield on these had I not neglected them but whatever I pulled is rock hard, dusted in sugar and smells absolutely stupendous! You did it again FastBuds!

3rd Week of Flower from Light Feeding liquid nutes twice a week

She was great! Besides getting nice nugs to smoke, I made canna coconut oil, then I made chocolates, then I made brownies, then I made brownies with large chocolate chunks. The munchies have been great to say the least 🍫. I try to make something each harvest, having some smoke is good enough, but being dedicated to the cause & community I feel obligated to do everything in my power to explore all these girls have to offer. I could not afford to explore if I didn’t grow so it’s a no-brainer

Great germination for this lady, on first week of veg, she's a cracker already, I will be growing this one along side the wedding cheesecake, will be chucking her in to a 20L pot closer to flower 🌼 happy days 👌 happy growing and stay green ✌️ 💚 👌

Aug 13th transplant day Using Gai Greens Organics 4-4-4 with worm castings and mykos for root structure Aug 15th Start of LST