Characterisation and combustion of reagents and compositions used in two ternary pyrotechnic time-delay systems

https://doi.org/10.25403/UPresearchdata.23666712

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posted on 2023-07-17, 08:20 authored by Shasha GuoShasha Guo

For ternary Al-NiO-Ni system: 1. Figures 4-1 and 4-2 show the particle characteristic of the reagents. 2. Figures 4-3 and 4-4 show the EKVI simulated results for two binary systems (Al-NiO and Al-Ni). 3. Figure 4-5 shows the EKVI simulated results for the ternary Al-NiO-Ni system. 4. Figures 4-6 and 4-7 show the combustion performance of the binary system Al-NiO and ternary Al-NiO-Ni system. 5. Figure 4-8 confirmed the phases of the components of the residues obtained from the combustion in different delay elements. For ternary Sn-Bi2O3-Mn system: 1. Figures 4-9 and 410 show the particle characteristic of the reagents. 2. Figures 4-11 and 4-12 show the EKVI simulated results for two binary systems (two thermites and two intermetallic systems), 3. Figure 4-13 shows the EKVI simulated results for the ternary Sn-Bi2O3-Mn system. 4. Figure 4-14 shows the combustion performance of binary systems and ternary Sn-Bi2O2-Mn system. For pictures of the table's data: 1. Tables 3-1, 3-2 and 3-3 list the details of the reagents, compositions and the preparation of delay elements. 2. Tables 4-1 and 4-11 list the main dominant reactions that occurred during the combustion process. 3. Tables 4-2 and 4-7 list the different combustion rates of the compositions compacted in different types of delay elements. 4. Table 4-3 lists the XRF results of Sn, Mn and Bi2O3 particles. 5. Table 4-4 lists the details of binary and ternary systems designed for the Sn-Bi2O3-Mn system. 6. Tables 4-5 and 4-6 list the burning rates of compositions for the Sn-Bi2O3-Mn system employed in glass tubes and open air. 7. Table 4-8 lists the mixture model coefficients used for the Sn-Bi2O3-Mn system. 8. Tables 4-9 and 4-10 list the phases of the components of the residues obtained from the combustion in different delay elements.