RESEARCH AREAS:
Shock Wave Dynamics High Strain Rate Impacts Fracture Mechanics High-speed Photography
Or, simply put, we hit things really hard and try to understand what happens.

News

11/2017 We had a great time at the 70th APS/DFD Meeting in Denver. Our undergradaute students Alexander, Christina and Tal, and our PhD student Heng, all presented their work for the first time at an APS/DFD Conference - and their presentations were great!
09/2017 Congratulations to Dr Stelios Koumlis who started his new position as a Postdoctoral Scholar at Drexel University with Prof. Lamberson.
09/2017 A warm welcome to our new students: Heng Liu (PhD student), William Mellor (PhD student), and Elesh Lakhani (MS student)!
08/2017 Congratulations to Stelios who got another paper accepted for publication in Experimental Mechanics.
06/2017 Congratulations to Qian and Hongjoo who got their paper in JFM accepted for publication!
06/2017 Welcome to our STARS students, Janitzi and Kevin, who will be joining our lab during the 2017 summer!
06/2017 Welcome to our ENLACE students, Ingrid and Sara, who will be joining our lab during the 2017 summer!
06/2017 Congratulations to Dr Shi Qiu, Dr Hongjoo Jeon and Dr Stylianos Koumlis who successfully defended their PhD Thesis on June 8 and June 9!
04/2017 Congratulations to Dr Qian Wan who successfully defended his PhD Thesis on April 27!
01/2017 Congratulations to Hongjoo Jeon who got his paper "Shock wave interactions with liquid sheets" accepted for publication in Experiments in Fludis.
12/2016 Dr Eliasson was awarded a 3-year grant from the Solid Mechanics Program at Office of Naval Research.
09/2016 Dr Eliasson gave a presentation at the Cali-Baja Center Summit on September 20th.
07/2016 Exciting news: Dr Eliasson has joined the Structural Engineering Department at University of California, San Diego, as an Associate Professor.
06/2016 Welcome to our two USC SHINE high school students: Tyler Amano-Smerling and Shaun Chen. Tyler and Shaun will spend the summer with us and learn about the experimental work we do.
06/2016 Dr Eliasson presents results from our HAMr experiment on the 2016 Annual SEM Conference in Florida.
05/2016: Congratulations to both Shi "Stone" Qiu and Dr Delpino who both got their papers accepted for publication today, June 8.


More news »

Recent publications

S. Koumlis*, H. Cheng, T.E. Morgan, C.E. Finch & V. Eliasson, Glial Model for Traumatic Brain Injury: network strain field and inflammation induced by repeated mechanical impacts in vitro, Online first, Experimental Mechanics, 2017. DOI 10.1007/s11340-017-0338-3.

Q. Wan, H. Jeon, R. Deiterding & V. Eliasson, Numerical and experimental investigation of oblique shock wave reflection off a water wedge, Journal of Fluid Mechanics, 826, 732-758, 2017

H. Jeon and V. Eliasson, Shock wave interactions with liquid sheets, Experiments in Fluids, 58(24), 2017. doi:10.1007/s00348-017-2300-7

T.Q. Phan, J.P. Kelly, M.E. Kassner, V. Eliasson, O.A. Graeve, & A.M. Hodge, Bulk Mechanical Properties Testing of Metallic Marginal Glass Formers, Journal of Metallurgy, Article ID 6508597, 8 pages, 2016. doi:10.1155/2016/6508597

O. Delpino Gonzales*, K. Luong**, H. Homma** & V. Eliasson, Experimental investigation of dynamic fracture initiation in PMMA submerged in water, Dynamic Behavior of Materials, 2, 391-398, 2016. DOI:10.1007/s40870-016-0074-2

S. Qiu, K. Liu & V. Eliasson, Parallel implementation of geometrical shock dynamics for two dimensional converging shock waves, Computer Physics Communications, 207 186-192, 2016. DOI:10.1016/j.cpc.2016.06.003

G.R. Khanolkar, M. Raouls, J.P. Kelly, O.A. Graeve, A.M. Hodge & V. Eliasson, Shock Wave Response of Iron-based In Situ Metallic Glass Matrix Composites, Scientific Reports, 6, Article number:22568, Doi:10.1038/srep22568, 2016

O. Delpino Gonzales, A.J. Nicassio & V. Eliasson, Evaluation of the effect of water content on the stress optical coefficient in PMMA, Polymer Testing, DOI: 10.1016/j.polymertesting.2016.01.004, 2016

More publications »

Events & Visits

We attended the 70th APS/DFD Meeting, November 19-21, in Denver, CO.
Dr Eliasson visits Eglin Air Force Base, October 11, 2017.
ISSW31, in Nagoya, Japan, July 9-14, 2017.
SEM, in Indianapolis, IN, June 12-15, 2017.
SoCal Fluids XI, at UCSD Campus, April 22, 2017.
Dr Eliasson participates in the UCSD ASME 2017 Mentor Night, January 23, 2017.
Dr Eliasson presents a talk at Caltech with the title From underwater shock focusing to dynamic fracture, January 13, 2017.
We attended the 69th APS/DFD Meeting, November 20-22, in Portland, OR.
Dr Eliasson presents a seminar talk "Shock Waves and Impacts - how to hit things really hard" in the UCSD MAE Department, November 7, 2016.
Dr Eliasson attends the Symposium to Celebrate the Pioneering Contributions of Professor Ares J. Rosakis on the Occasion of his 60th Birthday, September 16-17, 2016, Brown University.
XIII SEM International Congress, June 6–9, Orlando, Florida, 2016.
Denice Denton Emerging Leaders Workshop 2016, June 3, in Madison, Wisconsin, 2016.
So Cal Fluids X, April 9, UC Irvine, 2016.
Dr Eliasson meets with the USC AIAA students and talks about "Shock Wave Adventures" at USC, March 29, 2016.
APS/DFD in Boston, Nov 22-24, 2015.
ASME in Houston, Nov 13-19, 2015.

Research Group

QUESTIONS: [1] If you have a chance to travel around the world, which place would be your first choice? [2] What is your favorite movie? [3] Who is a person that inspires you? [4] If you were a superhero, what super power would you have? [5] What is your favorite car?
Veronica Eliasson

Veronica Eliasson [CV]

Associate Professor

Office:
Lab:
[1] Ascension Island
[2] V for Vendetta
[3] Astrid Lindgren
[4] Super strength
[5] Mustang 1966, V8, 289, C4...!

I often use the Olympic motto Citius, Altius, Fortius — Faster, Higher, Stronger — to describe the overall purpose of my work. I strive to expand the boundaries of my research fields to help create structures, devices, and vehicles that are stronger, lighter, faster and with improved properties. Shock waves are useful tools to generate highly dynamic and extreme conditions to study a range of such fields in fluids and solids. In particular, my research group use shock waves to study fluid-structure interaction under intense loading scenarios. Thus, our research addresses dynamic extremes in the fields of fluid and solid mechanics, including sub-disciplines such as fracture mechanics.


Current PhD Students

Rodrigo Chavez Morales

Rodrigo Chavez Morales

PhD Student, 2016-present
Undergraduate Degree: University of Kansas, Aerospace Engineering
Project: Dynamic fracture of polymers and composites
[1] Belgium for the Tomorrowland Music Festival
[2] The Star Wars Original Trilogy or Top Gun
[3] Neil Armstrong
[4] The super soldier formula, like Captain America
[5] Lamborghini Reventon

LinkedIn Profile »

Heng Liu

Heng Liu

PhD Student, 2017-present
Undergraduate Degree: South China University of Technology, Thermal and Power Engineering
Master's Degree: University of Southern California, Mechanical Engineering
Project: Shock Wave Dynamics
[1] Germany
[2] Jurassic Park
[3] Mom
[4] Electricity
[5] Volvo S90

LinkedIn Profile »

William Mellor

William Mellor

PhD Student, 2017-present
Undergraduate Degree: UCSD, Nanoengineering
Project: Experimental model of TBI
[1] Teahupo'o, Tahiti
[2] Zoolander
[3] Dwayne "The Rock" Johnson
[4] Teleportation
[5] Porsche 918 Spyder


Current Master Students

Elesh Lakhani

Elesh Lakhani

MS Student, 2016-present
Undergraduate Degree: BITS Pilani (India), Civil Engineering
Project: Interaction of Multiple Shock Waves
[1] Germany
[2] The Harry Potter Series
[3] My Father
[4] Professor X's telepathy
[5] Jeep Compass

LinkedIn Profile »


Alumni


Undergraduate student researchers

Ian Delaney

Ian Delaney

Undergradute student in the UCSD Mechanical and Aerospace Engineering Department
Project: Dynamic crack propagation
[1] Berlin, Germany
[2] Casino Royale
[3] John Glenn
[4] Wolverine's Invulnerability
[5] 1955 Mercedes-Benz 300 SL Gullwing

LinkedIn Profile »

Nicolas Fassardi

Nicolas Fassardi

Undergradute student in the UCSD Mechanical and Aerospace Engineering Department
Project: Shock wave mitigation
[1] Cinque Terre, Italy
[2] The Truman Show
[3] My dad
[4] I would choose to slo-mo time
[5] Koenigsegg Agera R
Brynn Hall

Brynn Hall

Undergradute student in the UCSD Mechanical and Aerospace Engineering Department
Project: Snapping shrimp
[1] Machu Pichu, Peru
[2] A Million Ways to Die in The West
[3] My Mom
[4] Super Strength
[5] 1959 BMW 507 Roadster
Tommy Hong

Tommy Hong

Undergradute student in the UCSD Mechanical and Aerospace Engineering Department
Project: Snapping shrimp
[1] Seoul
[2] Interstellar
[3] Tablo
[4] Teleportation
[5] Mercedes-Benz E350
Alexander Ivanov

Alexander Ivanov

Undergradute student in the UCSD Mechanical and Aerospace Engineering Department
Project: Shock wave mitigation
[1] Veliko Tarnovo, Bulgaria
[2] Gladiator
[3] Nikola Tesla
[4] Being able to paint like Bob Ross
[5] Nissan GTR
Christina Scafidi

Christina Scafidi

Undergradute student in the UCSD Structural Engineering Department
Project: Shock wave mitigation
[1] Sicily
[2] The King's Speech
[3] Mae Jemison
[4] Spatial Manipulation
[5] 1956 Cadillac Eldorado Biarritz Convertible
Tal Shemen

Tal Shemen

Undergradute student in the UCSD Structural Engineering Department
Project: Shock wave mitigation
[1] Bora Bora
[2] Avatar
[3] My Parents (Menachem and Michal Shemen)
[4] Telekinesis
[5] Shelby Mustang
Thomas Spencer

Thomas Spencer

Undergradute student in the UCSD Mechanical and Aerospace Engineering Department
Project: Shock mitigation
[1] Tokyo
[2] The Incredibles
[3] Fred Rogers
[4] Telekinesis
[5] Porsche 918 Spyder
Alexander Valenze

Alexander Valenze

Undergradute student in the UCSD Physics Department
Project: Snapping shrimp
[1] Maranello, Italy
[2] Back to the Future Trilogy
[3] Tammy and John Valenze
[4] Flying
[5] 2003 Ford GT or 1968 Mustang Boss 302 (I can't decide)

Previous undergradaute student researchers are listed in Dr. Eliasson's CV.

High school student researchers - SUMMER 2017

Sara Domínguez

Sara Domínguez

Visiting our lab during summer 2017 through the EnLace Program
Project: Shock wave mitigation
[1] Stockholm
[2] Sing Street
[3] Katherine Johnson
[4] Time Control
[5] Jeep Wangler Sahara
Ingrid Rivera

Ingrid Rivera

Visiting our lab during summer 2017 through the EnLace Program
Project: Shock wave mitigation
[1] Vatican City
[2] Whiplash
[3] Mario Benedetti
[4] Control Time
[5] Corvette Z06

Previous year's visiting high school students are listed in Dr. Eliasson's CV.

Journal Publications

Eliasson Graduate Advisee*, Eliasson Undergraduate Advisee**

In review

Published or In print

  1. S. Koumlis*, H. Cheng, T.E. Morgan, C.E. Finch & V. Eliasson, Glial Model for Traumatic Brain Injury: network strain field and inflammation induced by repeated mechanical impacts in vitro, Online first, Experimental Mechanics, 2017. DOI 10.1007/s11340-017-0338-3.
  2. Q. Wan*, H. Jeon*, R. Deiterding & V. Eliasson, Numerical and experimental investigation of oblique shock wave reflection off a water wedge, Journal of Fluid Mechanics, 826, 732-758, 2017
  3. H. Jeon* and V. Eliasson, Shock wave interactions with liquid sheets, Experiments in Fluids, 58(24), 2017. doi:10.1007/s00348-017-2300-7
  4. T.Q. Phan, J.P. Kelly, M.E. Kassner, V. Eliasson, O.A. Graeve, & A.M. Hodge, Bulk Mechanical Properties Testing of Metallic Marginal Glass Formers, Journal of Metallurgy, Article ID 6508597, 8 pages, 2016. doi:10.1155/2016/6508597
  5. O. Delpino Gonzales*, K. Luong**, H. Homma** & V. Eliasson, Experimental investigation of dynamic fracture initiation in PMMA submerged in water, Dynamic Behavior of Materials, 2, 391-398, 2016. DOI: 10.1007/s40870-016-0074-2
  6. S. Qiu*, K. Liu* & V. Eliasson, Parallel implementation of geometrical shock dynamics for two dimensional converging shock waves, Computer Physics Communications, 207 186-192, 2016. DOI: 10.1016/j.cpc.2016.06.003
  7. G.R. Khanolkar*, M. Raouls, J.P. Kelly, O.A. Graeve, A.M. Hodge & V. Eliasson, Shock Wave Response of Iron-based In Situ Metallic Glass Matrix Composites, Scientific Reports, 6, Article number:22568, Doi:10.1038/srep22568, 2016
  8. O. Delpino Gonzales*, A.J. Nicassio** & V. Eliasson, Evaluation of the effect of water content on the stress optical coefficient in PMMA, Polymer Testing, DOI: 10.1016/j.polymertesting.2016.01.004, 2016
  9. J.P. Kelly, S.M. Fuller, K. Seo, E. Novitskaya, J.C. Farmer, V. Eliasson, A.M. Hodge & O.A. Graeve, Designing In Situ and Ex Situ Bulk Metallic Glass Composites via Spark Plasma Sintering in the Super Cooled Liquid State, Materials and Design, 93, 26-38, 2016
  10. H. Jeon*, J.R. Gross*, S. Estabrook**, S. Koumlis*, Q. Wan*, G.R. Khanolkar*, X. Tao*, D.M. Mensching**, E.J. Lesnick** & V. Eliasson, Shock wave attenuation using foam obstacles — does geometry matter? Aerospace, 2(2), 353-375, 2015
  11. S. Koumlis*, D. Buecker**, G. Moler**, V. Eliasson & P. Sengupta, HAMr: A mechanical impactor for repeated dynamic loading of in vitro neuronal networks, Experimental Mechanics, 55(8), 1441-1449, DOI: 10.1007/s11340-015-0052-y, 2015
  12. C. Wang*, L. Grunenfelder, R. Patwardhan*, S. Qiu* & V. Eliasson, Investigation of shock wave focusing in water in a logarithmic spiral duct, Part 2: Strong coupling, Ocean Engineering, 102, 185-196, DOI:10.1016/j.oceaneng.2015.04.053, 2015
  13. G.R. Khanolkar*, S. Haghighat, A.M. Hodge, K.M. Flores & V. Eliasson, Effect of loading rate on dynamic fracture morphology of a Zr-based bulk metallic glass, Material Transactions, 56 (6), 2015
  14. O. Delpino Gonzales* & V. Eliasson, Influence of water uptake on dynamic fracture behavior of Poly(methyl methacrylate), Experimental Mechanics, 56 (1), 59-68, DOI:10.1007/s11340-015-0030-4, 2016
  15. Q. Wan* and V. Eliasson, Numerical study of shock wave attenuation in two-dimensional ducts using solid obstacles - How to utilize shock focusing techniques to attenuate shock waves, Aerospace 2, 203-221, DOI:10.3390/aerospace2020203, 2015
  16. O. Delpino Gonzales* and V. Eliasson, Effect of water content on dynamic fracture initiation of vinyl ester, Experimental Mechanics, Online first, DOI: 10.1007/s11340-015-0028-y, 2015
  17. S. Qiu* and V. Eliasson, Interaction and coalescence of multiple simultaneous and non-simultaneous blast waves, 26 (3), 287-297, Shock Waves, DOI: 10.1007/s00193-015-0567-2, 2015
  18. M.E. Kassner, K. Smith, and V. Eliasson, Creep in Amorphous Metals, Journal of Materials Research and Technology, 4 (1), 100-107, 2015
  19. C. Wang*, S. Qiu* and V. Eliasson, Investigation of shock wave focusing in water in a logarithmic spiral duct, Part 1: Weak coupling, Ocean Engineering, 102, 174-184, DOI: 10.1016/j.oceaneng.2014.09.012, 2015
  20. C. Wang*, S. Qiu* and V. Eliasson, Quantitative pressure measurement of shock waves in water using a schlieren-based visualization technique Online first, Experimental Techniques, DOI: 10.1111/ext.12068, 2013
  21. K. Balasubramanian* and V. Eliasson, Numerical investigations of the porosity effect on the shock focusing process. Shock Waves, 23 (6), 583-594, 2013
  22. C. Wang* and V. Eliasson, Shock wave focusing in water inside convergent structures, International Journal of Multiphysics, 6, 267-281, 2012
  23. V. Eliasson, M. Mello, A.J. Rosakis & P.E Dimotakis, Experimental investigation of converging shocks in water with various confinement materials. Shock Waves, 20, 395-408, 2010
  24. V. Eliasson, N. Tillmark, A.J. Szeri & N. Apazidis, Light emission during shock wave focusing in air and argon. Physics of Fluids, 19 106106, 2007
  25. V. Eliasson, M. Kjellander & N. Apazidis, Regular versus Mach reflection for converging polygonal shocks. Shock waves, 17, 43-50, 2007
  26. V. Eliasson, N. Apazidis & N. Tillmark, Controlling the form of strong converging shocks by means of disturbances. Shock waves, 17, 29-42, 2007
  27. V. Eliasson, N. Apazidis & N. Tillmark, Shaping converging shock waves by means of obstacles. Journal of Visualization, Vol. 9 No. 3, 240, 2006
  28. V. Eliasson, N. Apazidis, N. Tillmark & Lesser M., Focusing of strong shocks in an annular shock tube. Shock waves, 15 205-217, 2006

Research Projects

Project: Dynamic fracture of polymers

2013-present

We are interested in the effects of dynamic fracture of polymeric specimens. The goal is to develop a deeper understanding and predict dynamic crack initiation and propagation of polymers and different types of composites subjected to highly transient loading under extreme conditions.

Some of the samples are conditioned such that they have a considerable amount of water uptake before the impact experiment. Experimental edge on impacts onto samples are performed using projectiles launched from a gas gun. The dynamic response of the impacted samples are obtained using strain gauges with simultaneous ultra high-speed visualization techniques featuring a newly acquired Shimadzu Hypervision HPV-X2 camera that is capable of frame rates up to 10 million frames per second. We use different types of visualization techniques, such as digital image correlation, caustics, and photoelasticity, to probe the response of the samples.

So far, we have studied samples made of PMMA, neat vinyl ester resin, polycarbonate and carbon fiber/vinyl ester. Of particular interest is to obtain fracture toughness values obtained under mode-I, mode-II or mixed mode loading.
Caustic imaging of a crack propagating in PMMA
This image shows 9 subsequent high-speed photographs visualizing crack propagation in a PMMA sample conditioned at 11% relative humidity. The location of the crack tip is inside the caustic and the technique used to obtain this image is called caustic imaging.

Selected Relevant Publications

PROJECT: Shock wave attenuation

2012-present,

The research undertaken in this project is aimed at forming an experimental and numerical foundation to investigate shock wave attenuation. We are interested in effects of shock attenuation due to obstacles placed in the path of the shock wave. Particularly, we are interested in how large vs small geometrical features of the obstacles influence the degree of attenuation. Furthermore, we are interested in learning more about shock mitigation using liquids, and in particular, passive techniques where liquids are placed in the path of the shock wave. In particular, we are looking into

  1. Specific geometric shapes of liquid sheets to understand the optimal degree of attenuation that can be obtained.
  2. We ask ourselves what the role of Newtonian and non-Newtonian fluids and their mass, as well as thermal and inertial properties are on shock attenuation.
Direct measures of shock wave amplitude, peak pressure, total impulse in addition to quantitative and qualitative ultra high-speed shock wave schlieren photography is being used throughout this project.

Shock wave interaction with obstacles placed in a logarithmic spiral pattern
This image shows a series of high-speed schlieren photographs. A planar shock wave, propagating from left to right, impacts onto square obstacles placed along the outline of a logarithmic spiral.


Shock wave impact onto liquid surface
This image shows a series of high-speed photographs taken with a Phantom V711 camera. The incident shock propagates from the upper left corner and impacts onto a water wedge. The incident shock Mach number is 1.52 and the water wedge angle is 47 degrees. A regular reflection occurs.

Selected Relevant Publications

PROJECT: High rate loading of brain cells

2013-present,

Over the last 70 years many causes of traumatic brain injury (TBI) due to impact have been proposed. These include acceleration-deceleration of the head, intracranial pressure changes, stress waves, relative motion of the brain with respect to the skull, and cavitation. However, these causes utterly fail to describe quantitatively the main cause of injury, which is excessive tissue deformation. In our opinion, it is apparent that there still exists a debate on the main causes of TBI, and injury thresholds still has to be quantitatively understood.

Our long-term research goal is to establish a correlation between quantifiable mechanical parameters, such as deformation, strain and strain rate response, and underlying biological mechanisms responsible for tissue damage and impairment observed after impact events, and thereby improve prevention, diagnosis and treatment of TBI.

  1. We have developed an experimental setup, HAMr, in which brain cells have been impacted under highly controlled settings. Then, both mechanical and biological response have been recorded.
  2. We have also developed a pendulum impactor setup in which more realistic skull geometries can be studied carefully during and after a dynamic impact.
In this project we also use ultra high-speed imaging techniques to capture the dynamic response of the sample.
Dynamic impact of brain cells
This image shows GFAP immunofluorescence of mixed glial cultures. Representative immunostaining for astrocytic GFAP in controls (CTL) and impacted cultures. GFAP in green, DAPI in blue. Bar charts show quantification of relative GFAP intensity by integrated density and area coverage. GFAP area was reduced from 12% in controls to 7% in impacted cultures (*, p < 0.05). n=3, 3 replicates. Scale bar = 100μm. Published here.

Selected Relevant Publications

Teaching

  • Fall 2017

    UCSD SE-253A, Mechanics of Composites A: 4 units.
    Graduate-level introductory course on mechanics of composites and anisotropic materials. Overview of composite materials and processes; 3-D properties and stress-strain relationships; micromechanics; classical laminated plate theory; basic failure criteria; thermal/moisture/CTE.
    All course materials are posted on TritonEd and Piazza.
    Office hours Fall Quarter 2017: Wednesday 2:15-4pm in SME 343K.
    UCSD SE-253A
    In 2017, we even made some composites!
  • Spring 2017

    SE-207: Fracture Mechanics of Materials and Structures.
    In this course we will cover: introduction to fracture mechanics; energy balance in cracked bodies; general solutions to the biharmonic equations; displacement fields; Westergaard's method, stress intensity factors and strain energy release rate; mixed-mode fracture; William's asymptotic analysis; Irwin's and Dugdale models; J-integral and dynamic crack growth.
    All course materials are posted on TritonEd and Piazza.
  • Winter 2017

    SE-101B/MAE-130B: Dynamics
    In this course we will cover the following topics: Kinematics and kinetics of particles in 2-D and 3-D motion. Newton’s equations of motion. Energy and momentum methods. Impulsive motion and impact. Systems of particles. Kinematics and kinetics of rigid bodies in 2D. Introduction to 3D dynamics of rigid bodies.
    All course materials are posted on TritonEd and Piazza.

Previous courses

  • USC AME 309, Dynamics of Fluids: 4 units. Fluids statics; conservation of mass, momentum, and energy in integral and differential form; applications. Laminar and turbulent pipe flow; compressible flow; potential flow over bodies. Used a new course book, and introduced a hands on project with water bottle rockets containing both simulations and experiments. Taught fall 2012, 2013, 2014 & 2015
  • Fall 2012  —  73 Students
    Fall 2013  —  92 Students
    Fall 2014  —  86 Students
    Fall 2015  —  90 Students
  • USC AME 511, Compressible Gas Dynamics: 3 units. Thermodynamics, kinetic theory, compressible flow equations, shock and expansion waves, similarity, shock-expansion techniques and linearized flow applied to bodies, characteristics, theory of boundary layers. Introduced a Lab Tour to Caltech to see experimental facilities. Taught spring 2010-2016
  • Spring 2010  —  57 Students
    Spring 2011  —  53 Students
    Spring 2012  —  57 Students
    Spring 2013  —  51 Students
    Spring 2014  —  65 Students
    Spring 2015  —  48 Students
    Spring 2016  —  43 Students
  • USC AME 525, Engineering Analysis: 3 units. Typical engineering problems discussed on a physical basis. Linear algebra, vector analysis, functions of complex variables, infinite series, residues. Taught fall 2010, and fall 2011
  • Fall 2010  —  100 Students
    Fall 2011  —  109 Students
  • USC AME 441, Senior Projects Laboratory. Individual engineering projects designed and constructed to model and test a physical principle or system. Contributed several research projects and supervised 2 – 4 groups each fall. Participated fall 2009, 2010, 2011, 2012, 2013, 2014 and 2015

Outreach Activity

Dr Eliasson was during her time at USC actively particiapting in a variety of outreach projects, both at USC and in the nearby community. Other activities in connection with UCSD and the Department of Structural Engineering will be posted below.

Are you interested in connecting with us through our outreach efforts? Please contact Dr Veronica Eliasson to discuss ideas!

Collaboration with USC VAST (2015 & 2016)

USC Viterbi Adopt-a-School, Adopt-a-Teacher program (VAST) offers STEM programs that target K-12 Schools, K-12 Students, K-12 Teachers, and USC Students. The USC AME Department was featured by VAST in the fall of 2014 and our research group offered 15 lab tours during a single day. Then, as part of the AME Spotlight Event, Prof. Eliasson and PhD student Stelios Koumlis visited I have a Dream LA's 5th graders at 99 St Elementary School and talked about "Shock Wave Adventures" and super heroes. In June 2015, we again visited I have a Dream LA's 5th graders at 99 St Elementary School and launched soda bottle water rockets. How fun!
Dr. Eliasson's research group outreach activities
USC AME PhD students, Master's and Undergraduate students, and two USC Viterbi SHINE High School students launch rockets with 5th graders participaing in a summer program by "I have a Dream LA". Duct tape and carboard boxes can be used for many things!

Summer of 2015 - 8 weeks of SHINE: this is a competitive and unique eight-week opportunity for high school students to participate in hands-on engineering laboratory research focused on real-world problems. Dennis Lin and Alan Ton spent the summer with us and worked on several different experiments. They also used our Phantom V711 camera to record some movies of water balloon impacts, and other things - see below and our YouTube channel.
Dr. Eliasson's research group outreach activities
Figures (a) and (b) show a water-filled balloon being dropped on top of another water-filled balloon. (c) and (d) show a water-filled balloon thrown into a vertical wall, and (e) and (f) show a water-filled balloon being dropped on a push pin.

Summer of 2016 - 8 weeks of SHINE: Again, we had the opportunity to host two high school students, Tyler Amano-Smerling and Shaun Chen, in our lab. Tyler and Shaun worked together with PhD students on their research projects. Among other things, Shaun filmed the launch a soda bottle water rocket at high frame rates, and Tyler shot an arrow through a water-filled balloon and photographed it with a Phantom V711 camera.

Collaboration with IEA (2012, 2013, & 2014)

We worked with the Institute for Educational Advancement (IEA), which is a non-profit organization dedicated to supporting talented young people in pursuing their full academic and personal potential, during the summers of 2012, 2013 and 2014. We participated by housing one or two high school student Apprentices in our laboratory for four to eight weeks during the summers. Here is a Mentor Spotlight on Dr. Eliasson from 2014. Read a feature article from VAST here Dr. Eliasson's research group outreach activities
Alex and Hari, summer 2014, are working on an experimental setup, HAMr, used to determine how cell cultures behave under dynamic impact.

Participation in USC SURE (2014 & 2016)

The summer of 2014 was the first time we participated in the USC Summer Undergraduate Research Experience (SURE). For two months, we had a visiting undergraduate researcher, Michael Werner from Colorado School of Mines, CO, in our group helping us with our research on fracture propagation in polymers conditioned in liquid or humid environments subjected to dynamic impact. Michael then became a PhD student at Georgie Tech. Dr. Eliasson's research group outreach activities
Summer 2014, Michael is working together with our PhD student Orlando to determine how the stress optical coefficient varies in PMMA and vinyl ester sheets as function of absorbed water content.

Other outreach

During the summer of 2016, we hosted two undergaduate students, Fernando Zigunov and Lucas Ravanello Mokwa, from the Brazilian Scientific Mobility Program, in our lab. It was a great experience for everyone involved and we are excited to see what Fernando and Lucas decide to do in the future.

In March, 2015, Professor Eliasson gave a Keynote Lecture on "Shock Wave Adventures" during the 2015 Women in STEAM Celebration to the Lower School Students at Mirman School. In the afternoon, the PhD students in our research group launched soda bottle water rockets with the same students.

Mailing address

Veronica Eliasson, PhD
Department of Structural Engineering
University of California, San Diego
9500 Gilman Drive #0085
La Jolla, CA 92093-0085, USA

Phone number

+1 858-534-5928 (office)

Email

eliasson@ucsd.edu

Our YouTube Channel

Research Group Photos

Come visit us

Lab: SME 103,     Office: SME 343K