Shockwave compression Shockwave compression

Shockwave compression

1. Introduction

2. Pioneering Research By Atkins Foam Density Length

3. State of the Art Advancements

4. Future Directions

5. Literature Survey on Molecular dynamics simulations of shock compressed heterogeneous materials. ( The porous case ) Introduction & Objective Uses in Practice & Research Gaps Findings & Observations

6. Methodology

7. Experimental Details

8. Mechanical Deformation of Porous Ceramics

9. Introduction PZT95/5 is the ceramic used in the experiment and is ferroelectric at room temperature. Ceramics generally have low tensile strength and fracture toughness which is the reason for dielectric breakdown under shock wave compression. Porous ceramics exhibit greater resistance to dielectric breakdown under shockwave compression due to presence of voids.

10. Sample and Impact Setup For the sample high purity oxide powders are combined with PMMA pore formers to create porous PZT95/5 ceramics. Impact Plate Setup:

11. Observations After giving shock waves to PZT95/5 ceramic it can concluded that shock wave compression can be divided into four stages:

12. Observations Influence of Porosity: Influence of Impact Velocity:

13. Introduction

14. Pioneering Research By Atkins Foam Density Length

15. State of the Art Advancements

16. Future Directions

17. Literature Survey on Molecular dynamics simulations of shock compressed heterogeneous materials. ( The porous case ) Introduction & Objective Uses in Practice & Research Gaps Findings & Observations

18. Methodology

19. Experimental Details

20. Mechanical Deformation of Porous Ceramics

21. Introduction PZT95/5 is the ceramic used in the experiment and is ferroelectric at room temperature. Ceramics generally have low tensile strength and fracture toughness which is the reason for dielectric breakdown under shock wave compression. Porous ceramics exhibit greater resistance to dielectric breakdown under shockwave compression due to presence of voids.

22. Sample and Impact Setup For the sample high purity oxide powders are combined with PMMA pore formers to create porous PZT95/5 ceramics. Impact Plate Setup:

23. Observations After giving shock waves to PZT95/5 ceramic it can concluded that shock wave compression can be divided into four stages:

24. Observations Influence of Porosity: Influence of Impact Velocity: