Skip to Main Content
American Society of Mechanical Engineers: Digital Collection
Cart
header search
Search
Advanced Search
Skip Nav Destination

Proceedings Papers

Proceedings Volume Cover
2019 15th Hypervelocity Impact Symposium
April 14–19, 2019
Destin, FL, USA
ISBN:
978-0-7918-8355-6
2019 15th Hypervelocity Impact Symposium

2017 DSA Talk

Coils, Codes and Comets: My Attempts to Partially Understand Some Particular Aspects of Hypervelocity Impacts
David A. Crawford
HVIS 2019; V001T01A001doi:https://doi.org/10.1115/HVIS2019-DSA2017
View Article
PDF
Topics: Magnetic fields , Magnetism

Analytical and Numerical Methodologies

Mesoscale modeling and debris generation in hypervelocity impacts
Stephanie N. Q. Bouchey, Jeromy T. Hollenshead
HVIS 2019; V001T02A001doi:https://doi.org/10.1115/HVIS2019-017
View Article
PDF
Topics: Modeling , Engineering simulation , Failure , Grain boundaries , Simulation , Temperature
Hypervelocity penetration of granular silicon carbide from mesoscale simulations
Brian J. Demaske, Tracy J. Vogler
HVIS 2019; V001T02A002doi:https://doi.org/10.1115/HVIS2019-033
View Article
PDF
Topics: Engineering simulation , Granular materials , Silicon , Simulation
Statistical Distributions of the Elastic Moduli of Particle Aggregates at the Mesoscale
Gerald Pekmezi, David Littlefield, Bruno Chareyre
HVIS 2019; V001T02A003doi:https://doi.org/10.1115/HVIS2019-052
View Article
PDF
Topics: Elastic moduli , Particulate matter , Statistical distributions , Discrete element methods , Deformation , Stress , Kinematics , Modeling , Statistical mechanics , Uncertainty quantification
Validation of an Improved Contact Method for Multi-Material Eulerian Hydrocodes in Three-Dimensions
Kenneth C. Walls, David L. Littlefield
HVIS 2019; V001T02A004doi:https://doi.org/10.1115/HVIS2019-060
View Article
PDF
Topics: Deformation , Dimensions , Dynamics (Mechanics) , Finite element analysis , Finite element methods , Modeling
An Accurate SPH Scheme for Hypervelocity Impact Modeling
Anthony Collé, Jérôme Limido, Thomas Unfer, Jean-Paul Vila
HVIS 2019; V001T02A005doi:https://doi.org/10.1115/HVIS2019-078
View Article
PDF
Topics: Accounting , Computation , Dynamics (Mechanics) , Elastic waves , Failure , Flow (Dynamics) , Hydrodynamics , Impact modeling , Numerical analysis , Oscillations
Analytically derived space time-based boundary condition (STBC) to account for stress wave propagation in a heterogeneous micromechanical model at hypervelocity impact
Zhiye Li, Somnath Ghosh
HVIS 2019; V001T02A006doi:https://doi.org/10.1115/HVIS2019-090
View Article
PDF
Topics: Boundary-value problems , Spacetime , Stress , Wave propagation
Mesoscale Modeling of Al/Ni Composites
Grant Smith, Scott Bardenhagen, John Nairn
HVIS 2019; V001T02A007doi:https://doi.org/10.1115/HVIS2019-091
View Article
PDF
Topics: Composite materials , Modeling , Metals , Intermetallic compounds , Particulate matter , Temperature , Engineering simulation , Molecular dynamics , Shock (Mechanics) , Simulation
Adiabatic heating and damage formation of a composite associated with high-velocity impact
Zhiye Li, Xiaofan Zhang, Daniel J. O’Brien, Somnath Ghosh
HVIS 2019; V001T02A008doi:https://doi.org/10.1115/HVIS2019-109
View Article
PDF
Topics: Adiabatic processes (Thermodynamics) , Composite materials , Damage , Epoxy adhesives , Epoxy resins , Failure , Fibers , Glass , Physics
Higher-order finite elements for lumped-mass explicit modeling of high-speed impacts
Robert S. Browning, Kent T. Danielson, Ph.D., Mark D. Adley, Ph.D., P.E.
HVIS 2019; V001T02A009doi:https://doi.org/10.1115/HVIS2019-111
View Article
PDF
Topics: Finite element analysis , Modeling , Wedges , Computational methods , Defense industry , Solid mechanics , Stiffness

Armor/Anti-Armor and Ballistic Technology

Study on jet formation and penetration of double-layer sub-caliber shaped charge
Yu-ting Wang, Qiang-qiang Xiao, Zheng-xiang Huang, Xu-dong Zu, Bin Ma
HVIS 2019; V001T03A001doi:https://doi.org/10.1115/HVIS2019-100
View Article
PDF
Topics: Engineering simulation , Explosives , Simulation
Analysis of the distribution of BAD generated during the normal penetration of a variable cross-section EFP on RHA
Boyang XING, Yunhui HOU, Zhenyan GUO, Dongjiang ZHANG, Liang CHEN, Yongliang Yang, Jianhua Luo, Rongzhong LIU, Rui GUO
HVIS 2019; V001T03A002doi:https://doi.org/10.1115/HVIS2019-003
View Article
PDF
Topics: Armor , Computer simulation , Projectiles
Calculation of jet characteristics from hydrocode analysis
Justin C. Sweitzer, Nicholas Peterson, Scott Hill
HVIS 2019; V001T03A003doi:https://doi.org/10.1115/HVIS2019-004
View Article
PDF
Topics: Design , Explosions , Explosives , Manufacturing , Waves
Defeating Modern Armor and Protection Systems
Markus Graswald, Raphael Gutser, Jakob Breiner, Florian Grabner, Timo Lehmann, Andrea Oelerich
HVIS 2019; V001T03A004doi:https://doi.org/10.1115/HVIS2019-050
View Article
PDF
Topics: Armor , Kinetic energy
Evaluation of Critical Ricochet Angles for 25mm APDS-T Projectile on Metallic Targets - Modeling and Verification
Alon Weiss, Asaf Borenstein, Vitaly Paris, Moshe Ravid, Nimrod Shapira
HVIS 2019; V001T03A005doi:https://doi.org/10.1115/HVIS2019-069
View Article
PDF
Topics: Armor , Modeling , Projectiles , Steel
Effect of Liquid Parameters on Protective Performance of a Liquid Composite Target Subjected to Jet Impact
Tan Yaping, Jia Xin, Huang Zhengxiang, Cai Youer, Zu Xudong
HVIS 2019; V001T03A006doi:https://doi.org/10.1115/HVIS2019-093
View Article
PDF
Topics: Composite materials , Density , Dimensionless numbers , Speed of sound , Viscosity
Effects of Additional Body on Jet Velocity of Hyper-cumulation
XU Mengwen, JIA Xin, HUANG Zhengxiang
HVIS 2019; V001T03A007doi:https://doi.org/10.1115/HVIS2019-094
View Article
PDF
Topics: Computer simulation , Density , Design , Flat plates , Stability , Yield strength
3D Printed Conical Shaped Charge Performance
Phillip Mulligan, Catherine Johnson, Jason Ho, Cody Lough, Edward Kinzel
HVIS 2019; V001T03A008doi:https://doi.org/10.1115/HVIS2019-110
View Article
PDF
Topics: Additive manufacturing , Lasers , Melting

Asteroid Impact and Planetary Defense Technology

Momentum transfer in hypervelocity cratering of meteorites and meteorite analogs: Implications for asteroid deflection
George J. Flynn, Daniel D. Durda, Mason J. Molesky, Brian A. May, Spenser N. Congram, Colleen L. Loftus, Jacob R. Reagan, Melissa M. Strait, Robert J. Macke
HVIS 2019; V001T04A001doi:https://doi.org/10.1115/HVIS2019-028
View Article
PDF
Topics: Deflection , Momentum
Simulations of Magnetic Fields Produced by Asteroid Impact: Possible Implications for Planetary Paleomagnetism
David A. Crawford
HVIS 2019; V001T04A002doi:https://doi.org/10.1115/HVIS2019-032
View Article
PDF
Topics: Engineering simulation , Magnetic fields , Simulation , Magnetic anomalies , Cooling , Heating , Iron , Magnetic materials , Magnetization , Poles (Building)
Impact Modeling for the Double Asteroid Redirection Test Mission
Emma S.G. Rainey, Angela M. Stickle, Andrew F. Cheng, Andrew S. Rivkin, Nancy L. Chabot, Olivier S. Barnouin, Carolyn M. Ernst, the AIDA/DART Impact Simulation Working Group
HVIS 2019; V001T04A003doi:https://doi.org/10.1115/HVIS2019-038
View Article
PDF
Topics: Collaboration , Defense industry , Deflection , Impact modeling , NASA , Space vehicles
Size scaling of crater size, ejecta mass, and momentum enhancement due to hypervelocity impacts into 2024-T4 and 2024-T351 aluminum
James D. Walker, Sidney Chocron, Donald J. Grosch
HVIS 2019; V001T04A004doi:https://doi.org/10.1115/HVIS2019-049
View Article
PDF
Topics: Aluminum , Momentum , Metals , Rocks
Hypervelocity Impact on Concrete and Sandstone: Momentum Enhancement from Tests and Hydrocode Simulations
Sidney Chocron, James D. Walker, Donald J. Grosch, Stephen R. Beissel, Daniel D. Durda, Kevin R. Housen
HVIS 2019; V001T04A005doi:https://doi.org/10.1115/HVIS2019-059
View Article
PDF
Topics: Concretes , Engineering simulation , Momentum , Simulation

Fracture and Fragmentation

Bulking as a Mechanism in the Failure of Advanced Ceramics
Brendan M. L. Koch, Calvin Lo, Tomoko Sano, James David Hogan
HVIS 2019; V001T05A001doi:https://doi.org/10.1115/HVIS2019-022
View Article
PDF
Topics: Ceramics , Failure
Deformation and Acceleration of Zn and Cu Liners under Explosive Shock Loading
Puwadet Sutipanya, Fumikazu Saito, Mitsuyori Nakashita, Takashi Ogino, Yutaka Takizawa, Yohsuke Okada, Masahiko Natsubori
HVIS 2019; V001T05A002doi:https://doi.org/10.1115/HVIS2019-025
View Article
PDF
Topics: Ballistics , Deformation , Densitometry , Density , Diffusion (Physics) , Electrical conductivity , Errors , Explosives , Flight , High temperature
Modelling the Fracture of High-Hardness Armour Steel in Taylor Rod-on-Anvil Experiments
Brodie McDonald, Shannon Ryan, Stephen J. Cimpoeru, Nathan Edwards, Adrian Orifici
HVIS 2019; V001T05A003doi:https://doi.org/10.1115/HVIS2019-041
View Article
PDF
Topics: Armor , Finite element analysis , Fracture (Materials) , Fracture (Process) , Modeling , Shear (Mechanics) , Simulation , Steel
Shear band characteristics in high strain rate naval applications
Michael J. P. Conway, James D. Hogan
HVIS 2019; V001T05A004doi:https://doi.org/10.1115/HVIS2019-051
View Article
PDF
Topics: Failure , Shear (Mechanics) , Steel
The Role of Inclusions in the Failure of Boron Carbide Subjected to Impact Loading
Andrew L. Tonge, Brian E. Schuster
HVIS 2019; V001T05A005doi:https://doi.org/10.1115/HVIS2019-056
View Article
PDF
Topics: Boron , Failure
Assessment and Validation of Collision “Consequence” Method of Assessing Orbital Regime Risk Posed by Potential Satellite Conjunctions
Travis F. Lechtenberg, Matthew D. Hejduk
HVIS 2019; V001T05A006doi:https://doi.org/10.1115/HVIS2019-061
View Article
PDF
Topics: Collisions (Physics) , Risk , Risk assessment , Risk management , Satellites
Modeling Fragmentation within Pagosa Using Particle Methods
David B. Culp, Xia Ma
HVIS 2019; V001T05A007doi:https://doi.org/10.1115/HVIS2019-085
View Article
PDF
Topics: Hydrodynamics , Modeling , Particulate matter
Pagosa Simulation of Hypervelocity Impact and Fragmentation From Hypersonic Explosions
Xia Ma, David Culp, Brandon Smith
HVIS 2019; V001T05A008doi:https://doi.org/10.1115/HVIS2019-089
View Article
PDF
Topics: Explosions , Explosives , Simulation , Modeling , Shock (Mechanics) , Fluids , Ignition , Chain , Complex systems , Compressible flow
Characterization of the ballistic properties of ejecta from laser shock-loaded samples using high resolution picosecond imaging
Arnaud Sollier, Emilien Lescoute
HVIS 2019; V001T05A009doi:https://doi.org/10.1115/HVIS2019-097
View Article
PDF
Topics: Imaging , Lasers , Resolution (Optics) , Shock (Mechanics) , Jets , Pellet fusion , Shock waves , Cavities , Damage , Density
Conical impact fragmentation test (CIFT)
Christopher Neel, Peter Sable, Philip Flater, David Lacina
HVIS 2019; V001T05A010doi:https://doi.org/10.1115/HVIS2019-120
View Article
PDF
Topics: Cylinders , Engineering simulation , Fracture (Materials) , Fracture (Process) , Geometry , Probes , Simulation , Steel , Structural metals

High-Velocity Launchers and Diagnostics

Electrically-Launched mm-sized Hypervelocity Projectiles
W. Casey Uhlig, Paul R. Berning, Peter T. Bartkowski, Matthew J. Coppinger
HVIS 2019; V001T06A001doi:https://doi.org/10.1115/HVIS2019-016
View Article
PDF
Topics: Projectiles , Copper , Anodes , Engineering simulation , Magnetohydrodynamics , Simulation , Aluminum , Capacitors , Circuits , Design
HyFIRE: Hypervelocity Facility for Impact Research Experiments at Johns Hopkins University
Gary Simpson, Matthew Shaeffer, K.T. Ramesh
HVIS 2019; V001T06A002doi:https://doi.org/10.1115/HVIS2019-039
View Article
PDF
Topics: Chemistry , Density , Emission spectroscopy , Engineering disciplines , Flight , Lasers , Mechanics (Physics) , Photons , Projectiles , Shock (Mechanics)
Voitenko experiments with novel diagnostics detect velocities of 89 km/s
Douglas G. Tasker, Young K. Bae, Carl Johnson, Kevin Rainey, Christopher Campbell, Dave Oschwald, Cornelius Reed
HVIS 2019; V001T06A003doi:https://doi.org/10.1115/HVIS2019-081
View Article
PDF
Topics: Atmospheric pressure , Diaphragms (Mechanical devices) , Diaphragms (Structural) , Explosives , Gases , High pressure (Physics) , Lenses (Optics) , Metals , Pistons , Rupture
The JHUAPL Planetary Impact Lab (PIL): Capabilities and initial results
R. Terik Daly, Olivier S. Barnouin, Andrew M. Lennon, Angela M. Stickle, Emma S. Rainey, Carolyn M. Ernst, Andrew A. Knuth
HVIS 2019; V001T06A004doi:https://doi.org/10.1115/HVIS2019-084
View Article
PDF
Topics: Additive manufacturing , Collapse , Defense industry , Granular materials , Physics , Pressure , Projectiles , Shock (Mechanics) , Trajectories (Physics)
Transitional ballistics of electric high-velocity launchers
B. Reck, S. Hundertmark, R. Hruschka, A. Zeiner, B. Sauerwein, M. Schneider
HVIS 2019; V001T06A005doi:https://doi.org/10.1115/HVIS2019-092
View Article
PDF
Topics: Ballistics , Computer simulation , Separation (Technology) , Shock (Mechanics) , Tunnels , Projectiles , Gas flow , Flight , Air flow , Damage
Timing Delay Analysis of the Auxiliary Pump Technique to Improve the Performance of an Implosion-Driven Hypervelocity Launcher
Mafa Wang, Justin Huneault, Andrew J. Higgins, Sen Liu
HVIS 2019; V001T06A006doi:https://doi.org/10.1115/HVIS2019-117
View Article
PDF
Topics: Delays , Pumps
Laser-Driven High-Velocity Microparticle Launcher In Atmosphere And Under Vacuum
David Veysset, Yuchen Sun, Steven E. Kooi, Keith A. Nelson
HVIS 2019; V001T06A007doi:https://doi.org/10.1115/HVIS2019-127
View Article
PDF
Topics: Lasers , Microparticles , Vacuum , Coatings , Guns , Projectiles , Sprays

High-Velocity Penetration and Target Response

In-situ observation of damage evolution in polycarbonate subjected to hypervelocity impact
Nobuaki Kawai, Mikio Nagano, Sunao Hasegawa, Eiichi Sato
HVIS 2019; V001T07A001doi:https://doi.org/10.1115/HVIS2019-011
View Article
PDF
Topics: Damage , Waves , Imaging , Stress , Shapes , Engineering simulation , Fracture (Materials) , Fracture (Process) , Geometry , Performance
Towards a Better Understanding of Shaped Charge Jet Formation and Penetration
David W. Price, Ernest J. Harris, Frances G. Daykin
HVIS 2019; V001T07A002doi:https://doi.org/10.1115/HVIS2019-014
View Article
PDF
Topics: Copper , Design , Modeling , Three-dimensional modeling
Laser-Driven Micro-Flyers for Dynamic Fragmentation Statistics of Boron Carbide
Debjoy D. Mallick, Daniel J. Magagnosc, KT Ramesh
HVIS 2019; V001T07A003doi:https://doi.org/10.1115/HVIS2019-023
View Article
PDF
Topics: Boron , Lasers , Statistics , Shapes , Brittleness , Ceramics , Density , Failure mechanisms , Fracture toughness , Materials properties
Prediction of Micrometeoroid Damage to Lunar Construction Materials using Numerical Modeling of Hypervelocity Impact Events
Maria I. Allende, Joshua E. Miller, B. Alan Davis, Eric L. Christiansen, Michael D. Lepech, David J. Loftus
HVIS 2019; V001T07A004doi:https://doi.org/10.1115/HVIS2019-036
View Article
PDF
Topics: Building materials , Computer simulation , Damage , Biopolymers , Soil , Binders (Materials) , Civil engineering , Composite materials , Compressive strength , High temperature
A penetration model for semi-infinite ultra-high molecular weight polyethylene composite
Long H. Nguyen, Shannon Ryan, Adrian C. Orifici, Stephen J. Cimpoeru
HVIS 2019; V001T07A005doi:https://doi.org/10.1115/HVIS2019-046
View Article
PDF
Topics: Composite materials , Molecular weight , Armor , Deformation
Modeling Hypervelocity Impact of Reinforced Carbon-Carbon Composite Thermal Protection System
Alexander J. Carpenter, Sidney Chocron, James D. Walker
HVIS 2019; V001T07A006doi:https://doi.org/10.1115/HVIS2019-063
View Article
PDF
Topics: Carbon , Composite materials , Computer simulation , Modeling
Comparison of the Hydrodynamic Ram Caused by Single and Two Projectiles Impacting Water-filled Containers
Yangziyi Ji, Xiangdong Li, Lanwei Zhou, Xiaoying Lan
HVIS 2019; V001T07A007doi:https://doi.org/10.1115/HVIS2019-068
View Article
PDF
Topics: Containers , Projectiles , Water , Fluids , Cavities , Computer simulation , Damage , Drag (Fluid dynamics) , Kinetic energy , Oscillations
Study on Shaped Charge Jet Initiation of Solid Rocket Motors
Hao CUI, Rui GUO, Pu SONG, Jinsheng XU, Xiaohui GU, Rongzhong LIU
HVIS 2019; V001T07A008doi:https://doi.org/10.1115/HVIS2019-070
View Article
PDF
Topics: Jets , Motors , Propellants , Rockets
Filling the Gap between Hypervelocity and Low Velocity Impacts
Werner Arnold, Thomas Hartmann, Ernst Rottenkolber
HVIS 2019; V001T07A009doi:https://doi.org/10.1115/HVIS2019-073
View Article
PDF
Topics: Explosives , Jets , Munitions , Projectiles , Weapons
Investigation on the Impact and Penetration Performance of the Particulated Jet into Concrete Targets
Qi-feng Zhu, Qiang-qiang Xiao, Zheng-xiang Huang, Xu-dong Zu, Xin Jia
HVIS 2019; V001T07A010doi:https://doi.org/10.1115/HVIS2019-076
View Article
PDF
Topics: Cavities , Concretes
Automatic Mesh-Generation (FEM/SPH) for HVI-Simulations of Arbitrary Rotational Symmetric Impactors
Marvin Becker, Marina Seidl, Miriam Mehl, Mhamed Souli
HVIS 2019; V001T07A011doi:https://doi.org/10.1115/HVIS2019-080
View Article
PDF
Topics: Finite element methods , Finite element model , Fracture (Materials) , Fracture (Process) , Mesh generation , Simulation , Particulate matter , Projectiles , Ballistics , Boundary-value problems
Study on the explosion-proof performance of polyurea-reinforced masonry walls with different spraying methods
Wei Shang, Xu-dong Zu, Zheng-xiang Huang, Wen-ni Shen
HVIS 2019; V001T07A012doi:https://doi.org/10.1115/HVIS2019-095
View Article
PDF
Topics: Explosions , Fracture (Materials) , Fracture (Process) , Masonry walls , Plasma spraying , Spraying (Coating processes)
High Velocity Impact Testing for Evaluation of Intermetallic Projectiles
Colton B. Cagle, Kevin J. Hill, Connor Woodruff, Michelle L. Pantoya, Joseph Abraham, Casey Meakin
HVIS 2019; V001T07A013doi:https://doi.org/10.1115/HVIS2019-104
View Article
PDF
Topics: Flames , Ignition , Impact testing , Intermetallic compounds , Projectiles
Optimized Impact Mitigation Barriers for Insensitive Munitions Compliance of a 120mm Warhead
Kevin T. Miers, Daniel L. Prillaman, Nausheen M. Al-Shehab
HVIS 2019; V001T07A014doi:https://doi.org/10.1115/HVIS2019-105
View Article
PDF
Topics: Explosions , Explosives , Modeling , Munitions , Warheads
Experiment guided simulation of multi-fragment impact into PBXs
Andrew M. Schmalzer, John D. Yeager, Patrick R. Bowden, Daniel R. Guildenbecher, Joseph D. Olles
HVIS 2019; V001T07A015doi:https://doi.org/10.1115/HVIS2019-108
View Article
PDF
Topics: Modeling , Simulation , Explosions , Waves , Pressure , Separation (Technology) , Shock waves
Investigating Pressure Wave Impact on a Surrogate Head Model Using Numerical Simulation Techniques
Rohan Banton, Thuvan Piehler, Nicole Zander, Richard Benjamin, Josh Duckworth, Oren Petel
HVIS 2019; V001T07A016doi:https://doi.org/10.1115/HVIS2019-113
View Article
PDF
Topics: Computer simulation , Pressure , Waves , Explosions , Explosives , Military systems , Traumatic brain injury , Wounds
A Predictive Non-Dimensional Scaling Law for the Plate Perforation of Several Aluminum Alloys by Fragment-Simulating Projectiles
Weinong Chen, Zherui Guo
HVIS 2019; V001T07A017doi:https://doi.org/10.1115/HVIS2019-119
View Article
PDF
Topics: Aluminum alloys , Projectiles , Scaling laws (Mathematical physics)

Hypervelocity Phenomenology Studies

Development of Arl’s Multi-Energy Flash Computed Tomography Diagnostic: Capability to Track Mass-Flux Through a Reconstruction Volume
Michael B. Zellner, Melissa S. Love, Kyle Champley
HVIS 2019; V001T08A001doi:https://doi.org/10.1115/HVIS2019-015
View Article
PDF
Topics: Computerized tomography , Simulation
Simulating Lateral Drift of a Shaped Charge Jet in ALEGRA
Matthew J. Coppinger, W. Casey Uhlig, John H. J. Niederhaus
HVIS 2019; V001T08A002doi:https://doi.org/10.1115/HVIS2019-024
View Article
PDF
Topics: Defense industry , Explosives , Particulate matter
Experiments using a light gas gun to investigate the impact melting of gunshot residue analogues
V. Spathis, M. C. Price
HVIS 2019; V001T08A003doi:https://doi.org/10.1115/HVIS2019-030
View Article
PDF
Topics: Melting , Modeling
Four-View Split-Image Fragment Tracking in Hypervelocity Impact Experiments
Erkai Watson, Nico Kunert, Robin Putzar, Hans-Gerd Maas, Stefan Hiermaier
HVIS 2019; V001T08A004doi:https://doi.org/10.1115/HVIS2019-035
View Article
PDF
Topics: Algorithms , Particulate matter , Projectiles
X-ray diffraction diagnostic paired with gas gun driven compression of polyethylene
Rachel C. Huber, Erik B. Watkins, Dana M. Dattelbaum, Richard L. Gustavsen
HVIS 2019; V001T08A005doi:https://doi.org/10.1115/HVIS2019-112
View Article
PDF
Topics: Compression , Shock (Mechanics) , X-ray diffraction

Material Response (including EOS)

Wave speeds in single-crystal and polycrystalline copper
Sarah A. Thomas, Robert S. Hixson, M. Cameron Hawkins, Oliver T. Strand
HVIS 2019; V001T09A001doi:https://doi.org/10.1115/HVIS2019-007
View Article
PDF
Topics: Copper , Crystals , Waves , Stress , Shock (Mechanics) , Errors , Computers , Equations of state , Shear (Mechanics)
High velocity impact of an Fe/Cr/Mn/Ni high entropy alloy
M. Cameron Hawkins, Sarah Thomas, Robert Hixson, Nan Li, Saryu Fensin
HVIS 2019; V001T09A002doi:https://doi.org/10.1115/HVIS2019-008
View Article
PDF
Topics: Alloys , Entropy
Effects of EOS and constitutive models on simulating copper shaped charge jets in ALEGRA
Robert L. Doney, John H. J. Niederhaus, Timothy J. Fuller, Matthew J. Coppinger
HVIS 2019; V001T09A003doi:https://doi.org/10.1115/HVIS2019-010
View Article
PDF
Topics: Constitutive equations , Copper , Jets , Equations of state , Algorithms , Army , Military systems , Modeling , Probes , Simulation
Bayesian model selection for metal yield models in high-velocity impact
Teresa Portone, John Niederhaus, Jason Sanchez, Laura Swiler
HVIS 2019; V001T09A004doi:https://doi.org/10.1115/HVIS2019-012
View Article
PDF
Topics: Deformation , Flow (Dynamics) , Martensitic steel , Metals , Stress , Tungsten alloys , Uncertainty , Yield stress
Statistics of energy dissipation in the hypervelocity impact shock failure transition
Dennis Grady
HVIS 2019; V001T09A005doi:https://doi.org/10.1115/HVIS2019-020
View Article
PDF
Topics: Energy dissipation , Failure , Shock (Mechanics) , Statistics , Compacting , Compression , Shock waves , Solids , Arches , Dynamics (Mechanics)
Study on phase transformation in Tin under dynamic compression
Camille Chauvin, Frédéric Zucchini, David Palma de Barros
HVIS 2019; V001T09A006doi:https://doi.org/10.1115/HVIS2019-027
View Article
PDF
Topics: Compression , Phase transitions , Shock (Mechanics) , X-ray diffraction
Corning0120 High-Lead Glass Subject to Shock Loading
Bernardo Farfan, William Reinhart, Scott Alexander
HVIS 2019; V001T09A007doi:https://doi.org/10.1115/HVIS2019-031
View Article
PDF
Topics: Equations of state , Glass , Shock (Mechanics)
Modelling the deformation of a high-hardness armour steel in Taylor rod-on-anvil experiments
Shannon Ryan, Brodie McDonald, Nikki Scott, Rory Bigger, Sidney Chocron
HVIS 2019; V001T09A008doi:https://doi.org/10.1115/HVIS2019-040
View Article
PDF
Topics: Armor , Deformation , Modeling , Plasticity , Steel
Dynamic response of graphene and yttria-stabilized zirconia (YSZ) composites
Christopher R. Johnson, John P. Borg
HVIS 2019; V001T09A009doi:https://doi.org/10.1115/HVIS2019-042
View Article
PDF
Topics: Composite materials , Dynamic response , Graphene , Shock (Mechanics)
High Strain-rate Shear and Friction Characterization of Fully-Dense Polyurethane and Epoxy
Peter A. Sable, Christopher H. Neel, John P. Borg
HVIS 2019; V001T09A010doi:https://doi.org/10.1115/HVIS2019-047
View Article
PDF
Topics: Epoxy adhesives , Epoxy resins , Friction , Shear (Mechanics) , Urethane elastomers , Polymers , Adhesives , Binders (Materials) , Equations of state , Ethers (Class of compounds)
Eulerian Hydrocode Modeling of a Dynamic Tensile Extrusion Experiment
M. W. Burkett
HVIS 2019; V001T09A011doi:https://doi.org/10.1115/HVIS2019-057
View Article
PDF
Topics: Extruding , Flow (Dynamics) , Modeling , Stress , Projectiles , Algorithms , Copper , Temperature , Anisotropy , Continuum mechanics
Numerical and Experimental Evaluations of a Glass-Epoxy Composite Material Under High Velocity Oblique Impacts
Christopher T. Key, C. Scott Alexander
HVIS 2019; V001T09A012doi:https://doi.org/10.1115/HVIS2019-072
View Article
PDF
Topics: Composite materials , Epoxy adhesives , Epoxy resins , Glass , Defense industry
Thin film graded density impactors for high rate off-Hugoniot loading: Application to Ta strength
J. L. Brown, D. P. Adams, C. S. Alexander, J. L. Wise, W. D. Reinhart
HVIS 2019; V001T09A013doi:https://doi.org/10.1115/HVIS2019-083
View Article
PDF
Topics: Density , Thin films
Validating Ice Impacts Using Adaptive Smoothed Particle Hydrodynamics for Planetary Defense
Dawn Graninger, Megan Bruck Syal, J. Michael Owen, Paul Miller
HVIS 2019; V001T09A014doi:https://doi.org/10.1115/HVIS2019-102
View Article
PDF
Topics: Defense industry , Hydrodynamics , Ice , Particulate matter

Spacecraft Meteoroid and Debris Shielding and Failure Analyses

Consequences of micrometeoroid/orbital debris penetrations on the International Space Station
Hilary J. Evans, James L. Hyde, Eric L. Christansen, Dana M. Lear
HVIS 2019; V001T10A001doi:https://doi.org/10.1115/HVIS2019-018
View Article
PDF
Topics: Risk , Space stations , Probability , Performance , Space vehicles , Computer software , Damage , Evacuations , Fracture (Materials) , NASA
Investigation on Sustained Discharge of Satellite’s Power Harness Due to Plasma from Space Debris Impact
Yuki Mando, Koji Tanaka, Takayuki Hirai, Shirou Kawakita, Masumi Higashide, Hirohisa Kurosaki, Sunao Hasegawa, Kumi Nitta
HVIS 2019; V001T10A002doi:https://doi.org/10.1115/HVIS2019-019
View Article
PDF
Topics: Plasmas (Ionized gases) , Circuits , Particulate matter , Risk , Aluminum , Damage , Power systems (Machinery) , Projectiles , Satellites , Solar cell arrays
A rupture limit equation for COPVs following a perforating MMOD impact
William P. Schonberg
HVIS 2019; V001T10A003doi:https://doi.org/10.1115/HVIS2019-026
View Article
PDF
Topics: Composite materials , Pressure vessels , Rupture
Predicting orbital debris-induced failure risk of wire harnesses using SPH hydrocode modeling
Joel Williamsen, Michael Squire, Steven Evans
HVIS 2019; V001T10A004doi:https://doi.org/10.1115/HVIS2019-029
View Article
PDF
Topics: Failure , Modeling , Risk , Wire
Depth of penetration criteria on metallic surfaces for use in MMOD risk assessment
Henry Nahra, Louis Ghosn, Eric Christiansen, Joshua Miller, Bruce A. Davis
HVIS 2019; V001T10A005doi:https://doi.org/10.1115/HVIS2019-037
View Article
PDF
Topics: Fracture mechanics , Metal surfaces , Risk assessment , Failure , Space vehicles , Fracture (Materials) , Stress , Geometry , Particulate matter , Computer software
Numerical modeling of impacts of twisted-pair data cables
Joshua E. Miller
HVIS 2019; V001T10A006doi:https://doi.org/10.1115/HVIS2019-043
View Article
PDF
Topics: Cables , Computer simulation , Failure
Simulation study of non-spherical, graphite-epoxy projectiles
Joshua E. Miller
HVIS 2019; V001T10A007doi:https://doi.org/10.1115/HVIS2019-044
View Article
PDF
Topics: Carbon reinforced plastics , Epoxy adhesives , Epoxy resins , Graphite , Projectiles , Simulation
Investigation on Response of an Aluminum Honeycomb Subjected to Hypervelocity Impacts using Lagrange and SPH for Numerical Modeling
Kumi Nitta, Masumi Higashide, Mirai Sueki, Atushi Takeba
HVIS 2019; V001T10A008doi:https://doi.org/10.1115/HVIS2019-048
View Article
PDF
Topics: Aluminum , Computer simulation , Honeycomb structures , Space vehicles
Debris Risk Evolution And Dispersal (DREAD) for post-fragmentation modeling
Daniel L. Oltrogge, David A. Vallado
HVIS 2019; V001T10A009doi:https://doi.org/10.1115/HVIS2019-054
View Article
PDF
Topics: Collisions (Physics) , Modeling , Probability , Risk , Density , Engineering simulation , Explosions , Kinetic energy , Linear momentum , NASA
Hypervelocity impact performance of 3D printed aluminum panels
Bruce A. Davis, Richard A. Hagen, Robert J. McCandless, Eric L. Christiansen, Dana M. Lear
HVIS 2019; V001T10A010doi:https://doi.org/10.1115/HVIS2019-055
View Article
PDF
Topics: Additive manufacturing , Aluminum , Honeycomb structures , NASA , Weight (Mass) , Aerospace industry , Damage , Machining , Metal foams , Pressure
Extravehicular Activity Micrometeoroid and Orbital Debris Risk Assessment Methodology
Kevin D. Hoffman, James L. Hyde, Eric L. Christiansen, Dana M. Lear
HVIS 2019; V001T10A011doi:https://doi.org/10.1115/HVIS2019-058
View Article
PDF
Topics: Risk assessment , Risk , Textiles , Vehicles , Astronauts , Failure , Hazards , Leakage , Mechanical admittance , NASA
Updates to the DebriSat Project in Support of Improving Breakup Models and Orbital Debris Risk Assessments
Heather Cowardin, Phillip Anz-Meador, James Murray, J.-C. Liou, Eric Christiansen, Marlon Sorge, Norman Fitz-Coy, Tom Huynh
HVIS 2019; V001T10A012doi:https://doi.org/10.1115/HVIS2019-066
View Article
PDF
Topics: Aerospace industry , Air Force , Collaboration , Collisions (Physics) , Damage assessment , Density , Dimensions , Engineering models , Engineering simulation , Explosions
Numerical study of dynamic behavior of foams subjected to high- to hyper-velocity impact
Xiaotian Zhang, Ruiqing Wang, Q.M. Li
HVIS 2019; V001T10A013doi:https://doi.org/10.1115/HVIS2019-071
View Article
PDF
Topics: Aluminum , Computer simulation , Deformation , Erosion , Failure , Failure mechanisms , Foamed materials , Foams (Chemistry) , Hydrodynamics , Particulate matter
Explosion of hydrazine tanks due to space debris impacts
Jérôme Limido, Christian Puillet, Jean-Paul Vila
HVIS 2019; V001T10A014doi:https://doi.org/10.1115/HVIS2019-099
View Article
PDF
Topics: Explosions
Hypervelocity impact of PrintCast A356/316L composites
Lauren L. Poole, Manny Gonzales, Matthew R. French, William A. Yarberry, III, Abdel R. Moustafa, Zachary C. Cordero
HVIS 2019; V001T10A015doi:https://doi.org/10.1115/HVIS2019-118
View Article
PDF
Topics: Composite materials , Shock (Mechanics) , Preforms , Additive manufacturing , Electronics , Failure mechanisms , Lasers , Liquid metals , Melting , Melting point
All Years

Journals

Conference Proceedings

eBooks

Resources

Opportunities

  • Crossref Logo
  • Crossref Open Funder Registry Logo
  • Crossref Open Cited-By Logo
  • Crossref Crossmark Logo
  • Crossref Similarity Check Logo
  • Chorus Logo
  • Counter Logo
  • Cope Logo
  • STM Logo
Copyright © 2021 The American Society of Mechanical Engineers
Close Modal
This Feature Is Available To Subscribers Only

or Create an Account

Close Modal
Close Modal
This site uses cookies. By continuing to use our website, you are agreeing to our privacy policy.
Accept