Session Index
Session AA1. Plenary Session I: Material Response to Shock/Dynamic Loading: Windows into Shock-Induced Processes in Materials
Session B
B1. Inelastic Deformation, Fracture, and Spall I
B2. Detonations and Shock-Induced Chemistry I
B3. First-Principles and Molecular Dynamics Calculations I: Metals I
B4. Experimental Developments I
B5. Spectroscopy and Optical Studies I
Session C
C1. Inelastic Deformation, Fracture, and Spall II
C2. Detonations and Shock-Induced Chemistry II
C3. First-Principles and Molecular Dynamics Calculations II: Phase Transitions
C4. Experimental Developments II
C5. Spectroscopy and Optical Studies II
Session D
D2. Energetic Materials I
D3. First-Principles and Molecular Dynamics Calculations III: Energetic Materials I
D4. Geophysics and Planetary Science I: Vaporization and Ionization
D5. Phase Transitions I
Session E
E2. Energetic Materials II
E3. First-Principles and Molecular Dynamics Calculations IV: Equations of State
E4. Geophysics and Planetary Science II: Giant and Super-Earth Planets
E5. Phase Transitions II
Session F
F1. Poster Session (5:30 - 7:30pm)
Session G
G1. Plenary Session II: New Frontiers at the Intersection of Shock Physics and Planetary Sciences
Session H
H1. Inelastic Deformation, Fracture, and Spall III
H2. Energetic Materials III
H3. First-Principles and Molecular Dynamics Calculations V: Energetic Materials II
H4. Geophysics and Planetary Science III: Impact Phenomena
H5. Phase Transitions III
H6. Particulate/Porous Materials I: Foams
Session J
J1. Inelastic Deformation, Fracture, and Spall IV
J2. Energetic Materials IV
J3. First-Principles and Molecular Dynamics Calculations VI: Metals II
J4. Geophysics and Planetary Science IV: Tom Ahrens Memorial
J5. Biological Materials
J6. Particulate/Porous Materials II: Mesoscale Effects
Session K
K1. Plenary Session III: Metalized Heterogeneous Detonation and Dense Reactive Particle Flow
Session L
L1. Inelastic Deformation, Fracture, and Spall V
L2. Detonations and Shock-Induced Chemistry III
L3. First-Principles and Molecular Dynamics Calculations VII: Multiscale Modeling
L4. Post Shock Turbulence I
L5. Spectroscopy and Optical Studies III
L6. Ballistics I: Heterogeneous Media
Session M
M1. Inelastic Deformation, Fracture, and Spall VI
M2. Detonations and Shock-Induced Chemistry IV
M3. First-Principles and Molecular Dynamics Calculations VIII: Metals III
M4. Post Shock Turbulence II
M5. High Energy Density Physics/Warm Dense Matter I
M6. Ballistics II: Experiments and Phenomenology
Session P
P1. Inelastic Deformation, Fracture, and Spall VII
P2. Energetic Materials V
P3. High Pressure Strength I
P4. Post Shock Turbulence III
P5. High Energy Density Physics/Warm Dense Matter II
P6. Ballistics III: Strength and Damage Models
Session Q
Q1. Inelastic Deformation, Fracture, and Spall VIII
Q2. Energetic Materials VI
Q3. High Pressure Strength II
Q4. Physics and Chemistry at High Pressure: Static and Low Rate Studies
Q5. High Energy Density Physics/Warm Dense Matter III
Q6. Ballistics IV: Armors and Protection
Session R
R1. Plenary Session IV: George E. Duvall Shock Compression Science Award Talk: The Role of Gibbs Function in the Solid-Solid Phase Transformations Under Nonhydrostatic Stress Conditions
Session S
S1. Inelastic Deformation, Fracture, and Spall IX
S2. Detonations and Shock-Induced Chemistry V
S3. High Pressure Strength III
S4. Experimental Developments III
S5. Materials Science I
S6. Equation of State I
Session T
T1. Energetic Materials VII
T2. Detonations and Shock-Induced Chemistry VI
T3. High Pressure Strength IV
T4. Experimental Developments IV
T5. Materials Science II
T6. Equation of State II
Session U
U1. Energetic Materials VIII
U2. Detonations and Shock-Induced Chemistry VII
U3. First-Principles and Molecular Dynamics Calculations IX: Energetic Materials III
U4. Experimental Developments V
U5. Materials Science III
U6. Equation of State III
Session V
V1. Composites and Polymers I: Mechanics of PBXs
V2. High Pressure Strength V
V3. First-Principles and Molecular Dynamics Calculations X: Metals IV
V4. Experimental Developments VI
V5. Materials Science IV
V6. Equation of State IV
Session X
X1. Plenary Session V: Megaamps, Megagauss, and Megabars: Using the Sandia Z Machine to Perform Extreme Material Dynamics Experiments
Session Y
Y1. High Pressure Strength VI
Y2. Energetic Materials IX
Y3. Particulate/Porous Materials III: Theoretical and Computational
Y4. Experimental Developments VII
Y5. Composites and Polymers II: Polymers
Session Z
Z1. High Pressure Strength VII
Z2. Energetic Materials X
Z3. Particulate/Porous Materials IV: Experimental
Z4. Equation of State V
Z5. Composites and Polymers III: Composites
Sessions by a Sponsor
