Molded substrate and preparing method thereof
A substrate and molding technology, applied in the directions of planting substrates, botanical equipment and methods, culture medium, etc., can solve the problems of cumbersome operation of cultivation mode, inconvenient storage and transportation, polluted transplanting, etc., to keep the planting environment tidy and reduce moisture. and matrix loss, low cost effect
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Embodiment 1
[0027] Refer to the method of Guo Shirong (2003) to measure the bulk density and porosity of the matrix. On the other hand, the matrix block is soaked and saturated, then drenched naturally, and dropped naturally from a height of 1m. The percentage of the weight of the remaining matrix after scattering and the weight of the complete matrix block is the forming rate .
[0028] The above experimental results are shown in Table 1. With the decrease of the amount of binder added, the bulk density of the molding matrix decreases, the air porosity increases, and the molding rate decreases gradually. T1-T5 treatment groups are divided according to different perlite content, the perlite content of T1 group is 10%, and the perlite content of T1-T5 treatment group is increased by 5%. In each binder ratio treatment group, with the increase of perlite content With the increase of , the bulk density showed a decreasing trend, the total porosity had no significant difference, and the moldin...
Embodiment 2
[0032] First measure the weight of the dried cultivation substrate, add an equal amount of water to each experimental group, according to the formula substrate water absorption (%)=(mass after substrate absorbs water-dry substrate quality) / dry substrate quality×100% can be Measure the water absorption of the matrix for each time period.
[0033] Further, different proportions of water-retaining agents were added to the adhesive 1:150 and 1:180 treatment groups, and they were divided into T1-T5 groups according to different proportions of water-retaining agents (groups T1, T2, T3, T4, and T5 corresponded to water-retaining agents at a ratio of 1:200 , 1:300, 1:400, 1:500, 1:600), the physical and chemical properties of the molding matrix were measured, as shown in Table 2, the 1:150 treatment group decreased with the addition of water-retaining agent, the ventilation pores and water absorption It showed a trend of first increasing and then decreasing, and there was no significa...
Embodiment 3
[0037] Soak and saturate the matrix block, weigh it every 1 hour with a 1 / 100 electronic balance, and calculate the water retention rate (R) according to the formula: R=(m′-m) / (m0-m)×100%, where , m' is the total amount of the matrix block (g), m is the dry weight of the matrix block (g), m0 is the mass of the matrix block after infiltration and saturation (g), and finally the water retention rate of each period is summarized and tabulated to obtain different ratios Trends in the effect of superplasticizers on the water retention of the molding matrix.
[0038] image 3 The effect of different proportions of water retaining agent on the water retention rate of the molding matrix in the binder 1:150 treatment group, Figure 4 For the influence of different ratios of water-retaining agents on the water-retaining rate of the molding matrix in the binder 1:180 treatment group, it is divided into T1, T3, and T5 groups according to different ratios of water-retaining agents (T1, T3...
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