Here are a couple afterthoughts.... I will post a couple abstracts ya'll can read. I think that
Triacontanol is much more predictable when used alone vs in combination with other nutrients.
Triacontanol is known to have an optimal effect at a certain dosage and in some studies yields are actually reduced when these dosage rates are exceeded.
Tria also known to have a better effect with certain metal ions present. This has nothing to do with airy buds just that
Triacontanol can produce better results with different adjuncts present.
Tria increases nutrient uptake. It could be that the higher Nitrogen present in Alfalfa tea (mine particularly) when applied later in flower could have resulted in a more airy bud. That's a wild assed guess, but I do think I have read that higher N in flower is not desired.
Superthrive has urea in it and if it does have TRIA in it then possible this could explain the other time I got airy buds when using
Superthrive late in flower if in fact this had anything to do with it.
some links....
https://www.thcfarmer.com/community/threads/triacontanol-what-it-is-where-to-find-it.47363/
http://www.sciencedirect.com/science/article/pii/S0304423809001319
Abstract
Hyacinth bean (Lablab purpureus L.) serves as a good source of vegetable proteins in human diet, and its seeds and pods contain as much as 20–28% protein. The bean contains tyrosinase enzyme, which has potential use for the treatment of hypertension. However, plant biological yield appears to be comparatively low in Aligarh soil in this region of India (Western Uttar Pradesh). A hypothesis was designed to address whether foliar application of triacontanol (TRIA) could enhance the crop productivity as well as crop quality. TRIA is known to be a potent plant growth promoting substance for many agricultural and horticultural crops. The hyacinth bean plants grown in soil containing pots, were sprayed with five concentrations of TRIA (10−0(Control), 10−8, 10−7, 10−6 and 10−5 M) at 15-day intervals. The plant fresh and dry weights, leaf-area, number and dry weight of nodules per plant, total chlorophyll and carotenoid content, nitrate reductase activity, carbonic anhydrase activity, nodule-nitrogen content, leghemoglobin content and leaf N, P, K and Ca contents were analyzed at 60, 90 and 120 days after sowing (DAS). Net photosynthetic rate, transpiration rate and stomatal conductance were measured only at 90 DAS. The protein content plus carbohydrate and tyrosinase activity were analyzed in the seeds. Foliar spray of 10−6 M TRIA significantly stimulated most of the studied attributes. At the highest concentration (10−5 M TRIA), values of all attributes were significantly decreased at all three stages. For example, 10−6 M TRIA increased seed-yield and -protein content by 56.3 and 14.5%, respectively when compared to unsprayed plants. TRIA also stimulated the activity of tyrosinase when compared to the control plants.
http://www.springerlink.com/content/h716571376354053/
Abstract
The influence of triacontanol in a form of Tomatex preparation on basic indices of chlorophyll fluorescence in tomato leaves (Delfina cv.), yield of fruits, and dry matter content in fruits was evaluated in a pot experiment situated in vegetation hall in 1999. Tomatex was applied into roots at seedling stage (6–7 leaves) or at the stage of seedling and flowering of the 2nd inflorescence bunch. Plants were given by 0.3, 3.0, and 30 µg triacontanol per pot at a single dosage. Results obtained have shown that triacontanol regardless of the dose applied, significantly increased the maximal efficiency of PSII photochemistry in the dark (Fv/Fm), the efficiency of excitation capture by open PSII reaction centers (Fv’/Fm’), the actual quantum yield of PSII electron transport in the light-adapted state (ΦPSII), the photochemical quenching coefficient (Qp). However, nonphotochemical quenching coefficient (Qn) and non-radiative dissipation (NPQ) were decreased. Plants treated with triacontanol at the doses of 0.3 and 3.0 µg had significantly higher yields of fruits than control. No differences were found between plants treated once and twice with the growth regulator. Triacontanol did not show univocal effects on dry matter content in fruits either.
http://mrec.ifas.ufl.edu/foliage/resrpts/rh_95_2.htm
Effects of Nitrogen and Potassium Fertilization Ratios on Growth and Flowering of Three Anthurium Hybrids
Conclusions
Data presented indicate that the lower N and K fertilizer rates tested produced the highest quality plants. Not only was plant appearance improved at the lower fertilizer levels, but also flowering was much better, with increases of 59 to 85 %, depending on cultivar. Lack of early flowering, which lengthens crop turnover time, has been somewhat of a problem with many of the anthurium pot plant cultivars under development. Results from this experiment suggest the flowering problem may possibly be due in part to use of excessive levels of fertilizer, particularly nitrogen. Additional research is needed on these cultivars but based on data presented here, use of 900-1200 lb N/A/yr from a 1-1-1ratio fertilizer such as a liquid 20-20-20 or slow release 14-14-14 Osmocote (The Scotts Company, 665- Grantway, Allentown, PA 18106) would be suggested.
Abstract
Treatment of Chlamydomonas reinhardtii cells, cultured at 5% CO2, with 1 to 1000 micrograms triacontanol (TRIA) per liter resulted in 21 to 35% increases in cell density, 7 to 31% increases in total chlorophyll, and 20 to 100% increases in photosynthetic CO2assimilation. The increase in CO2 fixation with TRIA treatment occurred before, and was independent of, increases in total chlorophyll or cell number. Chlamydomonas cells responded to a broad range of TRIA concentrations that were at least one order of magnitude above the optimum concentration established for higher plants. The necessity for larger concentrations of TRIA may be due to destabilizing effects of Ca2+ and K+present in the Chlamydomonas growth medium. These ions caused flocculation of the colloidally dispersed TRIA in apparent competition with binding of [14C]TRIA toChlamydomonas cells. Octacosanol inhibited the effect of TRIA on photosynthetic CO2assimilation. TRIA treatment did not alter the distribution of 14C-label among photosynthetic products. The effect of TRIA on photosynthetic CO2 assimilation increased with time after treatment up to 3 days. Chlamydomonas cells that had been grown at low-CO2 (air) did not respond to TRIA, and transfer of high-CO2 (5%) grown cells that had responded to TRIA to a low-CO2 atmosphere resulted in a loss of the effect of TRIA. The effect of pH on photosynthetic CO2 assimilation indicated that CO2 is probably the species of inorganic carbon utilized by control and TRIA-treatedChlamydomonas cells.