Portfolio 2.1

Engineering Portfolio 418 N Meridian St. #5611 Newberg, Oregon 97132 Phone: (206)–930-9617 E-Mail: [email protected] Web: www.linkedin.com/in/peterjovanovich

PETER JOVANOVICH

PETERJOVAN OVICH Page 2

Table of Contents

Resume 3

Fieldhouse Athletics 5

Artistic Auto Body 6

Site Layout Projects 7

Quantitative Takeoffs 9

Dutch Bros 11

Senior Design 14

Servant Engineering 15

Topographical Mapping Project 17

Pneumatic Engine Project 19

Various Engineering Projects 20

Richter Research Project 21

P E T E R J O V A N O V I C H 418 N. Meridian St. #5611

Newberg, Or. 97132

1

206-‐‑930-‐‑9617 [email protected] https://www.linkedin.com/in/peterjovanovich

E D U C A T I O N

Bachelor of Science in Civil Engineering - GPA: 3.614 Anticipated April 2016 George Fox University – Newberg Oregon

I N D U S T R Y E X P E R I E N C E Centrex Construction, Inc. Pre-Construction Project Manager May 2015 – Present

• Responsible for multiple design/build projects in various stages of the pre-construction process.

• Manage design teams, plan and execute client meetings, engage municipalities and navigate projects through permitting process.

• Experience with project takeoffs and buyouts. • Utilize survey total station to layout project sites and building locations.

E N G I N E E R I N G P R O J E C T S

Wobbler Project Fall 2012

• Designed, modeled, and machined a working pneumatic engine, which incorporated a piston cylinder system.

Robot Project Spring 2013 • Wrote coding for “puma” robot to navigate through an obstacle course.

Simon Says Project Fall 2013

• Wrote coding using Verilog to play the game “Simon Says” on a provided circuit board.

Speaker Project Spring 2014 • Designed and soldered components on circuit board to create a speaker/amplifier

system, including a subwoofer. Topographical Mapping Project Fall 2014

• Used modern survey equipment to collect data for a building and its surrounding features; then, using AutoDesk Civil-3D, created a map of the area.

Thermo-Electric Generator Project Fall 2014 – Spring 2015

• Servant Engineering for InStove (Institutional Stove Solutions). Designed an integrated TEG (Thermo-Electric Generator) system to collect heat from a cook stove, for use in developing nations, transferring the heat to electricity in order to power a water pump and charge mobile devices

2

U N D E R G R A D U A T E R E S E A R C H E X P E R I E N C E Magnetic Hole Formation Subject to Directional Discontinuities – Magnetic holes, or decreases in magnetic field strength, have been observed by satellites throughout the solar system. The goal of this project was to extend the theoretical explanation of this phenomenon to more realistic conditions. This project was funded by the Richter Scholars Program. Research conducted through George Fox University; faculty advisor: Dr. Bob Hamilton.

H O N O R S A N D A W A R D S

• Four-time recipient of Dean’s List honor • Richter Research Scholar Fall 2013 – Fall 2014 • Member – GFU Engineering Student Advisory Board Fall 2015

P E R T I N E N T C O U R S E S

Statics and Dynamics Principles of Materials Science Fluid Mechanics Engineering Thermodynamics Mechanics of Materials Water Resources Engineering Structural Analysis and Design Transportation Engineering

Engineering Surveying Geotechnical Engineering AutoCAD with Civil 3D Reinforced Concrete Design Construction Management Environmental Engineering Steel Structures Design

A D D I T I O N A L W O R K E X P E R I E N C E

Sherwood Family YMCA

Senior Lifeguard December 2014 – May 2015 Building Supervisor August 2014 – May 2015 Lifeguard II September 2013 - November 2014

Honors: Employee of the Month January 2015


Fieldhouse Athletics A design build project coordinated by Centrex Construction. My responsibilities for this project have included:

• Conducting client and design team meetings and taking meeting minutes.

• Receiving proposals from sub-consultants, selecting sub-consultants, and contracting sub-consultants.

• Coordinating design effort and team. • Ordering and receiving a site geotechnical

report, a topographic survey, and a traffic impact report.

• Interacting with municipality planning staff. • Progressing the project through the steps of

applying for conditional use. • Project planning and scheduling. • Preparing building occupancy spreadsheet

based on planned facility programming.


Artistic Auto Body

A design build project coordinated by Centrex Construction. My responsibilities for this project have included:

• Conducting client and design team meetings and taking meeting minutes.

• Receiving proposals from sub-consultants, selecting sub-consultants, and contracting sub-consultants.

• Coordinating design effort and team.

• Conducting site elevations survey.

• Interacting with municipality planning staff.

• Writing purchase order for pre-engineered metal building and coordinating with fabrication design team.

• Successfully applying and receiving approval for a Class 1 Administrative Review. • Submitting permitting documents and corresponding with city planners and plan checkers. • Project planning and scheduling


Site Layout Projects: PDX Air Ameriflight Site Layout

Dimensions from project plans were used to create northing and easting coordinates of key site and building locations on the project site. These coordinates were then programmed into a total station. Site lease line corners, building corners and 10 foot offsets, structural gridlines and 10 foot offsets, and all other key site features were then plotted and verified in real space on the project site using the Leica total station. The above photo depicts the actual project structure amidst construction, and the site plan to the right shows the location of key coordinate points. This project provided me the grand opportunity to place the location of an airplane hangar, which will service corporate airlines at the PDX airport for years to come.


Site Layout Projects: Lifeflight Pendleton Site Layout

Similar to the PDX Air Ameriflight site layout project, northing and easting coordinates were created for key building and site features based on dimensions from project plans. These coordinates we programmed into a Leica total station, which was then used to plot and verify the coordinate’s location in real space on the project site. The above photo depicts the actual project structure amidst construction, and the site plan to the right shows the location of key coordinate points. This project provided me the grand opportunity to place the location of an airplane hangar, which will service Lifeflight Network at the Pendleton airport for years to come.


Quantitative Takeoffs: Hillsboro Aviation Anchor Bolt Takeoff

The following four project plans were used, in addition to a spreadsheet tool, to conduct a quantitative takeoff of required anchor bolt rods for a project. The structural footing classifications and footings schedule provided information used to calculate anchor bolt lengths.

The given finished floor elevations of each footing, the footing depth, and the anchor embedment into the spread footing were all used to calculate the required anchor bolt length.


The anchor rod plan and anchor rod details provided by the pre-engineered metal building manufacturer describe the required anchor bolt diameters at each footing and the size of the required base plate.


Dutch Bros Coffee Pre-construction project manager and assistant to the account manager for the Centrex/Dutch Bros. Coffee projects. I had the opportunity to be on the ground level of this relationship and was able to assist in the creation of the organizational structure for this special form of “mass project management.” Each of these projects have been design build projects, which have been coordinated with a subcontracted architect and civil design firm. My responsibilities within the Dutch Bros. projects have included:

• Monitor the progress of active jobs • Coordinate with the design team and

clients. • Attend pre-application meetings and initial project site visits • Create and maintain Centrex’s organizational structure for monitoring each job and relaying

information to the client. • Solicit proposals for and engage environmental sub-consultants to conduct Phase 1 Environmental Site

Assessment. • Setup jobs and contracts for each project using project management software. • Log all project communications and deliverables for each project.


Dutch Bros Coffee This depicts part of the created organizational structure for the Dutch Bros. projects. This tool, known as smartsheet, was used for project scheduling, client status updates, and file storage. I assisted in the creation of this spreadsheet structure.

Each job shows he current project status (green, yellow, or red), its Centrex job number, the Dutch Bros. real estate status for the site, and overall dates for project completion. Projects are divided into states for ease of viewing.


Dutch Bros Coffee

Each project has the following template. The quick look schedule is a tool to convey a brief project status update to the client, action items contains a detailed drop down list of possible tasks for each project with date trackers, and time tracker is an internal method of recording billable hours spent on each project. The remaining three sections are used as a drop box area. Drawings and documents are divided into the categories shown on the left and placed here for clients and sub-consultants to view.

A deeper look into the quick look schedule: These seven tasks have been identified as the critical path items for the majority of Dutch Bros. projects. This quick look schedule also serves as a project timeline estimation tool.

Finally, the scheduling tool below is used to gage a project’s possible duration based on the different design processes required and the type of construction it will be.


GFU Senior Design Project: Fieldhouse Athletics Civil & Site Design

A GFU senior design project sponsored by Centrex Construction. This project runs parallel path with the Fieldhouse Athletics development project. Working with a team of fellow senior civil engineering students, we have been tasked with creating a set of permit ready civil engineering plans. This includes site planning, grading design, hardscape design, drainage plan, parking plan, erosion control plan, sanitary design, power distribution, and gas distribution.

Our team has also conducted traffic counts to supplement the traffic impact report prepared by Mackenzie traffic engineers, as well as performing geotechnical soils analysis and compaction testing. As the project manager of this project I have had the additional experience of coordinating the team’s tasks, interacting with the project client, and providing overall project oversight.


GFU Servant Engineering Project: Thermoelectric Power Generation

A GFU servant engineering project, serving InStove (Institutional Stove Systems). This company designs and fabricates safe and efficient cook-stoves (pictured to right) for use in third world countries. Following InStove’s creation of a water pasteurizer system for use with their cook-stove, our team was asked to design a system which would

convert heat from the cook-stove into electricity which could power a water pump in order to pump water through the water pasteurizer. Our team decided to use thermoelectric generators (TEGs) to achieve this goal.

To determine the optimal locations of heat absorption for this system, our team conducted thermal mapping experiments. The pot section and under area of the stove were focused on during this experiment (pictured above and right).


GFU Servant Engineering Project: Thermoelectric Power Generation

The information obtained from this experiment was used to create a thermal circuit model of the stove system. This model was then used to predict the heat transfer, and hot/cold temperatures of the TEGs.

Our team designed a power conversion and transfer circuit to convert power from the TEGs into electricity to power the water pump (pictured to right). This system incorporated battery charging for excess energy that was not being used for the water pump. To conclude our design, water coolers were added to the cold side of the TEG’s to create maximum temperature differences across the TEG’s to create the most possible power. Upon completion of this design, our team integrated this system into the stove and tested the full design with battery charging and water pumping. Our design was successful but has the opportunity to be improved upon given additional time.


Topographical Mapping Project A student project conducted through the GFU Engineering Surveying course. This project involved the topographic mapping of a building, The Stevens Center (pictured to the right), and its surrounding features. This project used modern surveying equipment to gather point data of the building and its surroundings. The collected points are below. These points were then used to create a topographic map in AutoCAD Civil 3D. This map can be viewed on the following page.


Pneumatic Engine Project A student project conducted through the GFU Engineering Principles I class. This project required the student to design, value engineer, model in Solidworks, and fabricate the pneumatic engine. The engine depicted to the right and below was designed to maximize speed of the flywheel (Part #7). This goal was catered to by using 2 piston-cylinder systems (Parts #8,9,10), to optimize power, and bushings (Part 5) between the crankshaft (Part #4) and the valve plates (Parts #1,3). The fabrication of this engine was performed using the combination of band saws, lathes, mills, and a drill press.


Various Engineering Projects: Robot Project, Simon Says Project, Speaker Project

Wrote code, using Arduino, to navigate a “puma” robot, pictured to left, through an obstacle course. This robot was required to make left turns, right turns, avoid obstacles, rotate 360 degrees, go backwards, and follow walls.

Wrote code, using Verilog, to replicate the game “Simon Says.” This game was played on the circuit board pictured to the right. This program was required to create a random string of light signals, having the user replicate this pattern, and sharing the user’s score after each turn. This program also included two cheat modes. The first allowed the user to repeat the programs most recent light pattern, and the second showed the user the upcoming lights in the pattern on an attached second circuit board.

Given a circuit diagram, the components for a speaker were laid out and soldered together to create a working speaker/subwoofer/amplifier system. During the design of this system, multiple resister capacitor and inductor levels were chosen to achieve optimum power transfer. An enclosure for this system was designed and constructed, pictured to left.


Richter Research Project: Magnetic Hole Formation Subject to Directional

Discontinuities Accepted as a Richter Research Scholar, I was given the opportunity to conduct research with Dr. Bob Hamilton, Professor of Physics with George Fox University. I worked with Dr. Hamilton for 10 weeks during the summer of 2014, meeting each day and running theoretically based computer trials, which modeled Alfven wave behavior. The goal of our research was to explore the behavior of Alfven waves, which has no mathematical model to explain or predict its path. This behavior is rotationally asymmetrical, and while the symmetric behavior of an Alfven wave can be described using the Derivative Non-Linear Schrodinger Equation, there is no derivation of this equation, which can be used to describe the asymmetric wave case. A full report of the conducted research and findings, as well as the published poster used to present these findings can be viewed in the following pages.

Met

hods!

Dr.

Ham

ilton

an

d I

wor

ked

to

num

eric

ally

so

lve

the

prev

ious

ly d

escr

ibed

DN

LS e

quat

ion,

with

the

incl

usio

n of

di

ssip

atio

n. T

he fo

rm o

f thi

s eq

uatio

n w

e us

ed c

an b

e se

en

belo

w. H

ere

the

first

term

rep

rese

nts

the

time,

the

seco

nd

repr

esen

ts t

he n

onlin

ear

beha

vior

s, t

he t

hird

rep

rese

nts

the

disp

ersi

on,

and

final

ly t

he la

st t

erm

is t

he d

issi

patio

n.

We

wor

ked

tow

ard

taki

ng

an

initi

al

wav

e pr

ofile

w

ith

asym

met

ric b

ound

ary

cond

ition

s an

d pr

opag

atin

g it

in ti

me.

Th

en u

sing

the

DN

LS w

e fo

und

a nu

mer

ical

sol

utio

n us

ing

the

finite

diff

eren

ce m

etho

d al

ong

with

a p

seud

o-sp

ectra

l re

pres

enta

tion

for s

patia

l der

ivat

ives

.

We

first

tes

ted

the

sym

met

ric c

ase

and

prog

ress

ed t

he

wav

e th

roug

h a

rota

tion

of +

2π.

Upo

n ev

alua

ting

the

solit

ons

and

obse

rvin

g th

eir

prog

ress

ion

thro

ugh

time

we

foun

d an

ini

tial

cond

ition

of

one

brig

ht o

ne-p

aram

eter

so

liton

on

the

left

hand

sid

e of

our

wav

e, a

nd tw

o to

thre

e da

rk o

ne-p

aram

eter

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itons

on

the

right

han

d si

de o

f our

w

ave.

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s tim

e m

oved

forw

ard,

the

brig

ht s

olito

n on

the

left

and

the

left-

mos

t dar

k so

liton

on

the

right

beg

an to

app

roac

h on

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othe

r, ev

entu

ally

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lidin

g. T

his

colli

sion

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sed

the

solit

ons

to c

oale

sce

and

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a t

wo-

para

met

er s

olito

n,

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ch

then

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oved

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th

e le

ft an

d up

war

d in

to

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imag

inar

y pl

ane

as

time

mov

ed

on.

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co

llisi

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coal

esce

nce

iden

tifie

s th

e cr

eatio

n of

a m

agne

tic h

ole.

N

ext

the

sym

met

ric

case

w

as

prog

ress

ed

thro

ugh

a ro

tatio

n of

-2π

. U

pon

eval

uatin

g th

e so

liton

s an

d ob

serv

ing

thei

r pr

ogre

ssio

n th

roug

h tim

e w

e fo

und

an

initi

al c

ondi

tion

of o

ne d

ark

one-

para

met

er s

olito

n on

the

left

hand

sid

e of

our

wav

e, a

nd t

wo

to t

hree

dar

k on

e-pa

ram

eter

sol

itons

on

the

left

hand

sid

e of

our

wav

e.

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time

mov

ed fo

rwar

d, th

e le

ft ha

nd d

ark

solit

on a

nd th

e le

ft m

ost

right

-han

d da

rk s

olito

n be

gan

to a

ppro

ach

one

anot

her.

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they

got

clo

ser t

o ea

ch o

ther

they

bot

h sl

owed

do

wn

and

even

tual

ly b

egan

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l on

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d m

ove

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is

case

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owed

no

m

agne

tic

hole

fo

rmat

ion.

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nally

, af

ter

havi

ng c

ontro

l dat

a to

com

pare

aga

inst

, w

e ra

n th

e m

odifi

ed

prog

ram

w

ith

asym

met

ric

boun

dary

co

nditi

ons

and

prog

ress

ed th

e w

ave

thro

ugh

a ro

tatio

n of

+2

.3π

. A

s in

the

+2π

sym

met

ric c

ase

one

brig

ht o

ne-

para

met

er s

olito

n ap

pear

ed o

n th

e le

ft ha

nd s

ide

of o

ur

wav

e an

d tw

o to

thre

e da

rk o

ne-p

aram

eter

sol

itons

on

the

right

han

d si

de.

As

time

mov

ed f

orw

ard,

the

wav

e ex

pres

sed

the

sam

e be

havi

or a

s th

e +2π

sym

met

ric c

ase;

the

left-

hand

brig

ht

solit

on a

nd t

he l

eft-m

ost

dark

sol

iton

appr

oach

ed o

ne

anot

her

and

colli

ded,

cre

atin

g a

two-

para

met

er s

olito

n,

whi

ch m

oved

to

the

left

and

upw

ard

into

the

im

agin

ary

plan

e.

Res

ults!

Tsur

utan

i, B

. T.,

B. D

asgu

pta,

C. G

alva

n, M

. Neu

geba

uer,

G. S

. Lak

nina

, J. K

. Arb

allo

, D. W

inte

rhal

ter,

B. E

. G

olds

tein

, and

B. B

uti (

2002

a), P

hase

-ste

epen

ed

Alfv

en w

aves

, pro

ton

perp

endi

cula

r ene

rgiz

atio

n an

d th

e cr

eatio

n of

mag

netic

hol

es a

nd m

agne

tic

decr

ease

s: T

he p

onde

ro-m

otiv

e fo

rce,

Geo

phys

. Res

. Le

tt. ,

29(2

4), 2

233,

doi

:10.

1029

/200

2GL0

1565

2.

Tsur

utan

i, B

. T.,

C. G

alva

n, J

. K. A

rbal

lo, D

. Win

terh

alte

r, R

. Sak

urai

, E. J

. Sm

ith, B

. But

i, G

. S. L

akhi

na, a

nd A

. B

alog

h (2

002b

), R

elat

ions

hip

betw

een

disc

ontin

uitie

s,

mag

netic

hol

es, m

agne

tic d

ecre

ases

, and

non

-line

ar

Alfv

en w

aves

: Uly

sses

obs

erva

tions

ove

r the

sol

ar

pole

s, G

eoph

ys. R

es. L

ett.

, 29(

11),

1528

, doi

:10

.102

9/20

01G

L013

623.

H

amilt

on, R

. L.,

D. A

. Pet

erso

n, a

nd S

. M. L

ibby

(200

9),

Mag

netic

hol

e fo

rmat

ion

from

the

pers

pect

ive

of

inve

rse

scat

terin

g th

eory

, J. G

eoph

ys. R

es. ,

114,

A

0310

4, d

oi:1

0.10

29/2

008J

A01

3582

.

Dis

cuss

ion!

Ref

eren

ces!

Man

y th

anks

to D

r. B

ob H

amilt

on!

Intr

oduc

tion!

Res

earc

h G

oals!

Ove

rall,

we

wan

ted

to s

tudy

and

obs

erve

the

pos

sibl

e fo

rmat

ion

of M

H’s

and

MD

’s u

nder

asy

mm

etric

bou

ndar

y co

nditi

ons

in th

e fra

mew

ork

of th

e D

NLS

(D

eriv

ativ

e N

on-

Line

ar S

chro

ding

er e

quat

ion)

, whi

ch is

a w

eakl

y no

nlin

ear,

wea

kly

disp

erse

d lim

it of

mag

neto

-hyd

rody

nam

ics.

O

ur

hypo

thes

is

was

tw

o fo

ld.

Firs

t, th

e nu

mer

ical

ev

alua

tion

of s

teep

ened

mag

netic

fie

ld p

rofil

es u

nder

the

D

NLS

de

scrip

tion,

in

clud

ing

diss

ipat

ion,

w

ill

yiel

d th

e fo

rmat

ion

of

mag

netic

ho

les.

S

econ

dly,

th

e so

liton

in

form

atio

n w

ill p

rovi

de u

sefu

l des

crip

tions

and

con

stra

ints

on

this

form

atio

n pr

oces

s.

()

022

2=

++

xbiR

bb

xtb

∂∂∂∂

α∂∂

Der

ivat

ive

Non

linea

r Sch

rodi

nger

Equ

atio

n

Mag

netic

Hol

e Fo

rmat

ion

Subj

ect t

o D

irect

iona

l Dis

cont

inui

ties

Pete

r J. J

ovan

ovic

h G

eorg

e Fo

x U

nive

rsity

Mag

netic

hol

es (

MH

’s),

whi

ch a

re s

mal

l-sca

le d

epre

ssio

ns

in t

he m

agne

tic f

ield

, an

d m

agne

tic d

ecre

ases

(M

D’s

), w

hich

ar

e la

rge-

scal

e fie

ld

depr

essi

ons,

ar

e ob

serv

ed

thro

ugho

ut t

he s

olar

sys

tem

[Ts

urut

ani,

2002

]. Th

ere

are

two

form

s of

mag

netic

hol

es/d

ecre

ases

: lin

ear

and

non-

linea

r.

App

roxi

mat

ely

thirt

y pe

rcen

t of

all

MH

’s a

nd M

D’s

are

lin

ear,

mea

ning

they

hav

e sy

mm

etric

bou

ndar

y co

nditi

ons.

Th

e ot

her

seve

nty

perc

ent

are

cons

ider

ed

non-

linea

r; m

eani

ng, i

n th

is c

onte

xt, t

hat t

heir

dire

ctio

ns e

xper

ienc

e a

grea

ter

chan

ge

and

they

ha

ve

asym

met

ric

boun

dary

co

nditi

ons;

thes

e pa

rticu

lar

MH

’s a

nd M

D’s

wer

e th

e fo

cus

of o

ur re

sear

ch.

Ove

rall,

we

wer

e ab

le t

o si

mul

ate

the

mag

netic

hol

e fo

rmat

ion

thro

ugh

asym

met

ric

boun

dary

co

nditi

ons.

Th

e +2

.3π

as

ymm

etric

ca

se

expr

esse

d th

e sa

me

gene

ral b

ehav

iors

as

the

+2π

sym

met

ric c

ase.

In b

oth

sim

ulat

ions

tw

o on

e-pa

ram

eter

sol

itons

col

lided

, on

e br

ight

and

one

dar

k, c

reat

ing

a tw

o pa

ram

eter

sol

ition

w

hich

mov

ed to

the

left

and

upw

ard

into

the

imag

inar

y pl

ane.

O

ne i

dent

ifiab

le d

iffer

ence

bet

wee

n th

e tw

o ca

ses

is

the

time

elap

sed

befo

re c

ollis

ion

of th

e on

e-pa

ram

eter

so

liton

s. In

the

sym

met

ric c

ase

the

two

one-

para

met

er

solit

ons

colli

de a

t app

roxi

mat

ely

15 ti

me

units

whi

le in

th

e as

ymm

etric

cas

e th

ey c

ollid

e at

app

roxi

mat

ely

9.25

tim

e un

its. T

he e

xact

reas

ons

for t

hese

diff

eren

ces

are

still

unk

now

n.

In c

oncl

usio

n, a

wor

king

sim

ulat

ion

of th

e fo

rmat

ion

of

a m

agne

tic

hole

su

bjec

t to

as

ymm

etric

bo

unda

ry

cond

ition

s w

as c

reat

ed a

nd v

erifi

ed. H

opef

ully

this

has

se

t th

e gr

ound

wor

k fo

r fu

rther

res

earc

h in

the

fut

ure

tow

ards

obt

aini

ng a

num

eric

al s

olut

ion.

Usi

ng k

now

n bo

unda

ry c

ondi

tions

and

the

slo

pe o

f th

e w

ave

at t

he f

irst

poin

t, th

e cr

eate

d pr

ogra

m p

redi

cts

the

next

poi

nts

loca

tion.

The

n us

ing

that

new

slo

pe a

nd p

oint

lo

catio

n th

e ne

xt p

oint

loca

tion

and

slop

e is

pre

dict

ed a

nd

so o

n un

til th

e fin

al k

now

n bo

unda

ry c

ondi

tion

is r

each

ed.

The

prog

ram

was

alte

red

to a

llow

us

to c

hang

e th

e kn

own

boun

dary

con

ditio

ns a

nd c

reat

e an

asy

mm

etric

sce

nario

w

here

the

ini

tial

and

final

con

ditio

ns d

o no

t eq

ual

one

anot

her.

A

fter

crea

ting

the

nece

ssar

y da

ta

usin

g th

e D

NLS

pr

ogra

m, a

noth

er p

rogr

am w

as u

sed

to e

valu

ate

the

wav

e an

d se

arch

for

solit

ons.

We

prog

ress

ed th

is w

ave

forw

ard

in ti

me

and

obse

rved

the

beha

vior

of t

he s

olito

ns a

nd th

eir

inte

ract

ion

with

one

ano

ther

. Th

is d

ata

was

col

lect

ed f

or

both

the

sym

met

ric a

nd a

sym

met

ric c

ases

.

Date post:	15-Apr-2017
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