12 - 18 noviembre Se realiza poda apical en el nodo 6 y poda de bajos y hojas

19 - 25 noviembre Se realiza amarre en brazos más altos poda de bajos y hojas al igual dóblanos estás dos ranas para generar estrés y emparejar con las demás

Day 23 The third week of flowering is complete. Most of the height growth is finished. Time for a radical defoliation. The girls look great. Unfortunately, Kush has formed hermaphrodites on the flowers in the shade. I hope that I have removed them all. The lamp will be raised to 100% output in two stages.

Feed on 23rd & last 2 shifts from today 27th , I also did big defoliation which I didn’t record

I did bend her down and she's doing Great! I think i will Mainline her or so it Like i did with the Fastberry. The topping went good. She recovers from the Stress pretty fast and ist doing a grat Job! Looking forward. Stay tuned 🤙🏽

A

Nachdem ich ein paar Triebe aus Versehen abbrach, lies ich vergangene Woche die Pflanzen in ruhe. Mittlerweile war alles zugewuchert, weshalb ich mich dazu entschloss, einige Blätter zu entfernen und mit etwas LST zu starten um die Pflanzen auf das kommende SCROG´ing vorzubereiten

Ernten dauern ewig wenn man alles von Hand macht 🙄🙄🙄

d.71. had trouble uploading video, so i uploaded some screenshots from the video. d.72 shes looking better after the dose of orgatrex i gave her yesterday.

12 - 18 noviembre Realizamos poda apical y dejamos crecer libremente quitamos únicamente hojas grandes

19 - 25 noviembre Se ve completamente recuperada de la poda apical crecimiento vigoroso se deja crecer libremente queremos crecer plantas más grandes así nos toque tener más paciencia.

Cursando la segunda semana de floración, todo sigue sobre ruedas... Me mantengo en pH 5.8 y la EC entre 2.0 - 2.1 Ya se siente olor leve a planta, aún no hay olor a flor Ocupo 20 gramos de calcium y 25 de hybrids para preparar 20 litros de solución de riego, posteriormente ajusto el pH

New under canopy lights are here and finally in! I know it's a late addition to this grow, but cannot wait to see how this affects the lowers and yield!

Another good week.

Filling in nicely.

Couldn't be happier with how this Cap Junky is turning out - super citrus terps.

11/27 She’s not getting enough of the light. I’m working on another grow space so she can get more light penetration. Considering I let her stretch so much and not getting adequate light. She’s looking pretty good. Buds are already looking dense.

Gratitude. Gave her another application of Gibberelin, same as before. What can I do to increase the rate of cellular respiration? We are adding more reactants, like glucose. Photosynthetic efficiency is the fraction of light energy converted into chemical energy during photosynthesis in green plants and algae. The simplified chemical reaction can describe photosynthesis 6 H2O + 6 CO2 + energy → C6H12O6 + 6 O2 where C6H12O6 is glucose (which is subsequently transformed into other sugars, starches, cellulose, lignin, and so forth). The value of the photosynthetic efficiency is dependent on how light energy is defined – it depends on whether we count only the light that is absorbed, and on what kind of light is used (see Photosynthetically active radiation). It takes eight (or perhaps ten or more) photons to use one molecule of CO2. The Gibbs free energy for converting a mole of CO2 to glucose is 114 kcal, whereas eight moles of photons of wavelength 600 nm contains 381 kcal, giving a nominal efficiency of 30%. However, photosynthesis can occur with light up to wavelength 720 nm so long as there is also light at wavelengths below 680 nm to keep Photosystem II operating (see Chlorophyll). Using longer wavelengths means less light energy is needed for the same number of photons and therefore for the same amount of photosynthesis. For actual sunlight, where only 45% of the light is in the photosynthetically active wavelength range, the theoretical maximum efficiency of solar energy conversion is approximately 11%. In actuality, however, plants do not absorb all incoming sunlight (due to reflection, respiration requirements of photosynthesis, and the need for optimal solar radiation levels) and do not convert all harvested energy into biomass, which results in a maximum overall photosynthetic efficiency of 3 to 6% of total solar radiation. If photosynthesis is inefficient, excess light energy must be dissipated to avoid damaging the photosynthetic apparatus. Energy can be dissipated as heat (non-photochemical quenching), or emitted as chlorophyll fluorescence. Starting with the solar spectrum falling on a leaf, 47% lost due to photons outside the 400–700 nm active range (chlorophyll uses photons between 400 and 700 nm, extracting the energy of one 700 nm photon from each one) 30% of the in-band photons are lost due to incomplete absorption or photons hitting components other than chloroplasts 24% of the absorbed photon energy is lost due to degrading short wavelength photons to the 700 nm energy level 68% of the used energy is lost in conversion into d-glucose 35–45% of the glucose is consumed by the leaf in the processes of dark and photorespiration Stated another way: 100% sunlight → non-bioavailable photons waste is 47%, leaving 53% (in the 400–700 nm range) → 30% of photons are lost due to incomplete absorption, leaving 37% (absorbed photon energy) → 24% is lost due to wavelength-mismatch degradation to 700 nm energy, leaving 28.2% (sunlight energy collected by chlorophyll) → 68% is lost in conversion of ATP and NADPH to d-glucose, leaving 9% (collected as sugar) → 35–40% of sugar is recycled/consumed by the leaf in dark and photo-respiration, leaving 5.4% net leaf efficiency. Far-red In efforts to increase photosynthetic efficiency, researchers have proposed extending the spectrum of light that is available for photosynthesis. One approach involves incorporating pigments like chlorophyll d and f, which are capable of absorbing far-red light, into the photosynthetic machinery of higher plants. Naturally present in certain cyanobacteria, these chlorophylls enable photosynthesis with far-red light that standard chlorophylls a and b cannot utilize. By adapting these pigments for use in higher plants, it is hoped that plants can be engineered to utilize a wider range of the light spectrum, potentially leading to increased growth rates and biomass production. Green Green light is considered the least efficient wavelength in the visible spectrum for photosynthesis and presents an opportunity for increased utilization. Chlorophyll c is a pigment found in marine algae with blue-green absorption and could be used to expand absorption in the green wavelengths in plants. Expression of the dinoflagellate CHLOROPHYLL C SYNTHASE gene in the plant Nicotiana benthamiana resulted in the heterologous production of chlorophyll c. This was the first successful introduction of a foreign chlorophyll molecule into a higher plant and is the first step towards bioengineering plants for improved photosynthetic performance across a variety of lighting conditions.

Whosoever affirmeth that the Philosophers' grand Secret is beyond the powers of Nature and Art, he is blind because he ignores the forces of Sol and Luna. Switched to flowering spectrum. Cannabis flowering stage 12 h /day = PPFD Top of canopy sits 924umol/s/m2 12 hours in seconds, 12 hours has 43,200 seconds, just multiply seconds by PPFD at the top of the canopy. Which was precisely 924 umol/s/m2 43,200 x 924 = 39,916,800 micro moles or umol/s/m2 40mol/m2.day Plants can receive 60 mol/m2.day in the right conditions and still increase their yield. Axial Procession 25920 years. Hexehedron EARTH 360*6=2160x12 signs of zodiac=25920 Rhythmic exposure to moonlight has been shown to affect animal behavior, but its effects on plants, often observed in lunar agriculture, have been doubted and often regarded as myth. Consequently, lunar farming practices are not well scientifically supported, and the influence of this conspicuous environmental factor, the moon, on plant cell biology has hardly been investigated. We studied the effect of full moonlight (FML) on plant cell biology and examined changes in genome organization, protein and primary metabolite profiles in tobacco and mustard plants and the effect of FML on the post-germination growth of mustard seedlings. Exposure to FML was accompanied by a significant increase in nuclear size, changes in DNA methylation and cleavage of the histone H3 C-terminal region. Primary metabolites associated with stress were significantly increased along with the expression of stress-associated proteins and the photoreceptors phytochrome B and phototropin 2; new moon experiments disproved the light pollution effect. Exposure of mustard seedlings to FML enhanced growth. Thus, our data show that despite the low-intensity light emitted by the moon, it is an important environmental factor perceived by plants as a signal, leading to alteration in cellular activities and enhancement of plant growth. https://www.researchgate.net/publication/374055659_Moonlight_Is_Perceived_as_a_Signal_Promoting_Genome_Reorganization_Changes_in_Protein_and_Metabolite_Profiles_and_Plant_Growth

Finally got her down. Day 203 21/11/24 Thursday Its finally time 🙌!! She has had 48 hrs of dark and more mildew started to set in so thank goodness I chopped her today!! Have not had time to weigh her yet, but wet trim, and deeper wet trim of sugar leaves affected with mildew have been removed. She is now hanging in tent to dry, with heat mat, and extraction on low. Humidity is 66% and 18'c. Her colours have deepened and her aroma is potent!! Strong sweet floral smell , similar to the perfume 😍 Uploaded pics and a short vid of before the chop. Will update harvest tomorrow with wet weigh. Thanks for following along my journey, big shout out and thank you to @Divineseeds for this cultivar. Next time , bigger pot, more lollipoping 😎💪💚 Day 209 27/11/24 Wednesday 6 days drying now. Humidity at 63% . Picture and video update 📸💚