000 | 01377 a2200169 4500 | ||
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082 | _a517.988 MAD | ||
100 |
_aMadhab Bharman _93379 |
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245 | _aAnalysis and Simulations of Network-Based Nonlinear Epidemic Models | ||
260 |
_bMathematic, _cAug 2024. |
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300 |
_a205p; _bxix: |
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500 | _aThe study of epidemic dynamics is crucial for understanding and controlling the spread | ||
502 | _aFinally, our work contributes to the evolving field of epidemic modeling by integrating graph Laplacian diffusion into the framework. | ||
520 | _aThe study of epidemic dynamics is crucial for understanding and controlling the spread of infectious diseases. In recent years, there has been a growing interest in employ- ing graph theory and network science to model the complex interactions among in- dividuals and understand spatial disease spread in a population. This thesis explores the application of graph Laplacian diffusion in epidemic modeling of well-established epidemic models such as Susceptible-Infectious-Removed (SIR), Susceptible-Exposed- Infectious-Removed (SEIR), Susceptible-Asymptomatic-Infectious-Removed (SAIR), and more. | ||
653 | _aHopf bifurcation; Epidemic; Compartmental Model; Spatial- disease spread; Population mobility; Graph Laplacian; Local Sta- bilith; | ||
700 |
_aMadhab Barman _eDr. Nachiketa Mishra _93380 |
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942 | _cTD | ||
999 |
_c5289 _d5284 |