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JANUARY 2019<br />

R<br />

STEMCON: FACT VS FICTION<br />

SPECIAL EDITION


CONTENTS<br />

4 Welcome Remarks<br />

5 A Tribute To “Bill” Hrudey<br />

12<br />

10<br />

PHOTO CREDIT - Terry Sampson<br />

6<br />

8<br />

10<br />

11<br />

12<br />

13<br />

14<br />

15<br />

16<br />

ROY BODDEN - A Man Of Substance<br />

The Physics Of Hollywood Movies<br />

The Science Of Magic<br />

Research Ethics & Science Integrity<br />

Virtual Reality For All<br />

Jumping Into Collegiate Esports<br />

Growing Plants On Mars<br />

No Lab Required<br />

Fingerprint Fun!<br />

16 17<br />

15<br />

On The Cover<br />

It was only in 2001 that the term STEM, as it refers<br />

to Science, Technology, Engineering and Mathematics<br />

was introduced by the National Science Foundation in<br />

the USA. Before that, the term stem firmly belonged<br />

to the realm of plants. Vines as pictured on the cover<br />

provided the inspiration for the STEM theme in<br />

this special edition. A vine is a climbing stem and it<br />

aptly represents the growth of STEM Carib from year<br />

to year since 2012 – just like a vine which displays<br />

growth based on long stems. A vine tends to use rock<br />

or other plants supports for growth. This enables the<br />

plant to reach sunlight with a minimum investment of<br />

energy, just as UCCI and Harrisburg University form<br />

the support systems that have allowed STEM Carib in<br />

Grand Cayman to reach the pinnacle of light it has.<br />

17<br />

18<br />

20<br />

22<br />

24<br />

25<br />

26<br />

27<br />

28<br />

29<br />

30<br />

32<br />

Science Fair Winner<br />

STEM Carib Conference Pictures<br />

Building Bridges Through Robotic Olympics<br />

Discovering The Truth With Maps<br />

Understanding & Dealing With The Problem<br />

Of Space Junk<br />

Is It Art? Is It Engineering? Could It Be Both?<br />

Nanotechnology & Medical Biotechnology<br />

Digital Domestic Violence<br />

STEM Education: It’s About Student Voice &<br />

Choice<br />

Our Still Dangerous Sun<br />

About UCCI<br />

Meet The Intellectuals<br />

29<br />

22<br />

25<br />

27<br />

STEM is a term that has<br />

become increasingly<br />

popular in education when<br />

referring to this group of<br />

topics (Science, Technology,<br />

Engineering, Mathematics).<br />

A solid STEM foundation is<br />

not only a foot in the door of<br />

the world’s fastest growing<br />

job market, but has become<br />

crucial for the future success<br />

of all students.<br />

The University College of the Cayman Islands,<br />

Harrisburg University of Science and Technology and<br />

the STEM Carib 2018 organising committee extend<br />

our heartfelt gratitude to the 24 international and local<br />

STEM experts who took time to share their knowledge<br />

and inspire our attendees.<br />

We also acknowledge the budding scientists and<br />

engineers from the Rotary Science Fair and the UCCI<br />

STEM Camp, whose participation herald a bright future<br />

for STEM in Cayman and the region.<br />

In addition, we recognise the 850+ conference<br />

attendees, parents, students, teachers, principals,<br />

professionals in the field, STEM enthusiasts, media<br />

friends and the general public who supported the event<br />

and attended over 40 engaging sessions. Sincerest<br />

thanks also go out to all our volunteers who worked<br />

tirelessly behind the scenes.<br />

Lastly, we gratefully acknowledge the generosity of<br />

our sponsors, whose demonstration of corporate social<br />

responsibility enabled us to host our biggest, most<br />

successful STEM Carib Conference to date. We hope<br />

that all of you can join us again next year.


From The Editor<br />

Greetings!<br />

Welcome to the third special edition of The Intellectual<br />

Magazine –dedicated to the STEM Carib Conference held<br />

annually in Grand Cayman since 2012. In this issue, you<br />

will get a taste of the diversity of science and technology in<br />

action by the participants of the conference...from features<br />

on domestic violence to developing maps for piecing history<br />

together. It shows the importance of science in fields that on<br />

the surface appear to have little to do with science at all!<br />

This precisely has been the importance of the STEM Carib<br />

conferences, to introduce to the school children of the Cayman<br />

Islands the role that science and technology plays all around<br />

us and its viability as careers in a range of options. Harrisburg<br />

University of Science and Technology has continued to partner<br />

with UCCI to make the STEM Carib conferences rise to<br />

greater heights. That aside, this conference was overshadowed<br />

by the exit of two powerful gentlemen –both responsible in<br />

their own ways for the success that STEM Carib has become.<br />

We unfortunately lost Dr. William Hrudey early in 2018 to<br />

cancer. He was the founder of the STEM Carib Conferences<br />

and the visionary who made such a difference with his passion<br />

for science, technology and learning. His absence was a<br />

screaming sad silence this year.<br />

The other gentleman without whom STEM Carib could<br />

not be the reality it has become is the President of UCCI,<br />

Mr. Roy Bodden. This was Mr. Bodden’s last conference<br />

as the President of UCCI as he retired at the end of 2018.<br />

Both these gentlemen have left their indelible marks in the<br />

history of Cayman Islands as it pertains to education. The<br />

Intellectual salutes both these gentlemen. In this issue, you<br />

will find a tribute to both these gentlemen. As we enter a<br />

new year 2019, a new beginning, we welcome Dr. Stacy R.<br />

McAfee who takes up the helm as President of UCCI on the<br />

retirement of President Bodden. We live in a time where<br />

progress is science is happening at a dizzying pace and it<br />

is such a joy to be part of that journey through this special<br />

edition of The Intellectual –art, science and architecture. Stay<br />

curious, folks!<br />

Cogito, ergo sum.<br />

Dr. Shirin Haque,<br />

Editor-in-Chief<br />

The Cayman Islands, like other<br />

Caribbean Islands, is also known<br />

for its unique “Caribbean Style”<br />

of Architecture and is a reflection<br />

of the many cultures and ethnic<br />

groups, Native Amerindians,<br />

Spanish, French, Dutch, British,<br />

Indian and African that help shape<br />

the Architecture of the villages and<br />

towns of the entire region.With new<br />

materials, modernism has brought<br />

a transformation to the built<br />

environment in Cayman, especially<br />

now that tourism has replaced the<br />

plantation trade as the driving<br />

economic force in the Caribbean;<br />

luxury accommodations featuring the latest amenities have now dominated the architectural<br />

landscape as thousands of tourists, from all over the world, visit the Cayman Islands every year.<br />

This blend of historic styles from Europe and indigenous styles with modernism is what has led<br />

to a unique “Caribbean Style” in architecture.<br />

The Caribbean is also home to hurricanes, heat, rain, and intense humidity. All of these factors<br />

also played into the overall design and features of many Caribbean homes and buildings. Heavy<br />

rainfalls contributed to the choice of gable roofs. Cool Caribbean breezes led many to adopt<br />

large, open verandas in their homes, to take advantage of the cooling breezes and to offer a<br />

place to take in the beauty of the natural surroundings. Shutters were, and still are, a critical<br />

feature of many buildings with an eye toward withstanding the forces of hurricanes.<br />

All photography in the magazine unless<br />

otherwise stated is by Richard McLeod.<br />

The opinions in the articles in The Intellectual reflect the authors’ points of view. Total or<br />

partial reproduction of the contents of this magazine without the express authorization of the<br />

editor is prohibited. The publisher is not responsible for the contents of the advertisements<br />

published in this magazine.<br />

E D I T O R I A L T E A M<br />

Dr. Shirin Haque, PhD<br />

Editor-in-Chief<br />

Yuddhistra Sharma<br />

Creative Design & Marketing<br />

Deva Sharma<br />

Consultant<br />

Sharmin Haque<br />

Chicago Office, Illinois, USA<br />

The Intellectual Magazine<br />

Tel: 1-868-684-9823<br />

E-mail: the.intellectual.magazine@gmail.com<br />

Website: http://www.the-intellectual-magazine.com<br />

FOLLOW US:<br />

R


STEM 2018 | Special Edition<br />

Welcome to the<br />

2018 STEM Carib Conference<br />

President J.A. Roy Bodden, JP<br />

University College of the Cayman Islands<br />

It is with sadness that I record the passing of Dr. William<br />

(Bill) Hrudey, MBE. Dr. Hrudey was the founder and until his<br />

passing remained the inspiration behind these conferences. His<br />

presence will be sorely missed, but those of us who knew him<br />

realise that it would be his wish that we continue with his work.<br />

Dr. Hrudey has left a rich legacy in his vision and efforts<br />

to promote STEM education at UCCI and by inference, the<br />

Cayman Islands. It was his initiative which led to the partnership<br />

with Harrisburg University. I am happy to report that the<br />

partnership still exists and I take great pleasure in welcoming<br />

Dr. Eric Darr, President of Harrisburg University of Science and<br />

Technology, and his team to this year’s conference.<br />

In a similar vein, I welcome our other dignitaries,<br />

speakers and presenters and look forward to informative,<br />

edifying and enlightening sessions. This year’s conference theme<br />

STEMCON: FACT versus FICTION, accurately captures what<br />

our objectives are. From the opening keynote entitled “The Real<br />

Life Science of Hollywood Movies” to the closing keynote “STEM<br />

for All Kids”, there will be two days of information, activities and<br />

fun. It is my pleasure to extend this invitation to the public to<br />

join us on October 9th through 12th, for this grand time.<br />

President Eric Darr, PhD<br />

Harrisburg University College of Science and Technology<br />

I would like to personally welcome each of you to<br />

the STEM Carib 2018 Conference presented by Harrisburg<br />

University of Science and Technology and the University College<br />

of the Cayman Islands.<br />

Harrisburg University is proud to team up with the<br />

University College of the Cayman Islands to co-present the<br />

conference, which brings together individuals with scientific<br />

habits of curiosity, skepticism, critical thinking, honesty,<br />

ethical reasoning, teamwork, communication and persistence –<br />

Individuals who understand that the STEM fields shape our daily<br />

existence and are vital to our children’s future.<br />

I am sure you will find the presentations, networking<br />

and breakout sessions scheduled during the next few days both<br />

informative and rewarding. Presentations led by experts from<br />

both universities will focus on topics ranging from Cybersecurity<br />

and Forensic Science to Gaming, Engineering, and employment<br />

opportunities in the STEM fields and more. There will be<br />

roundtable discussions and STEM camp projects.<br />

Before I close, I’d like to thank each of you for attending our<br />

conference and bringing your insight, curiosity, and expertise<br />

to the event. Throughout the conference, I encourage you to get<br />

involved. Stay engaged, attend as many sessions as possible and<br />

let’s shape the future of STEM together. My thanks to all of you.<br />

University College of the Cayman Islands<br />

www.ucci.edu.ky<br />

(345) 623-8224<br />

Follow us:<br />

Harrisburg University of<br />

Science and Technology<br />

www.harrisburgu.edu.<br />

(717) 901-5100<br />

Follow us:<br />

4 www.the-intellectual-magazine.com


STEM 2018 | Special Edition<br />

A Tribute to“Bill” Hrudey<br />

Roy Bodden<br />

Approximately one year after taking office as<br />

President at the University College of the Cayman<br />

Islands, I received an invitation from one of the<br />

Rotary Clubs on Grand Cayman. The Rotarians<br />

(generous corporate donors) wished to learn of my vision<br />

for the future of UCCI. I vividly recall informing them of<br />

my objective to broaden the curriculum by introducing<br />

science, engineering and technology into the course offerings.<br />

The exposition of this vision must have been convincing<br />

as, at the end of my talk, I was approached<br />

by a number of Rotarians who<br />

complimented me on the vision. Among<br />

those who expressed congratulations was<br />

a man who seemed confident, convinced<br />

and interested in science.<br />

“Hi, my name is Bill Hrudey and<br />

I like your vision”, the stranger remarked<br />

in a voice that struck me as if he had just<br />

had a revelation. Without taking much<br />

of a break, the stranger enquired, “Would<br />

you like a telescope?”<br />

Without giving any thought to<br />

such a question, I replied hastily, “Yes, of<br />

course. I’ll take the telescope.”<br />

Quickly realizing that I had no idea of the size and<br />

sophistication of the telescope, I began to think that my ready<br />

acceptance may have been ill-advised. What happened next<br />

confirmed my fears for, upon accepting the benefactor’s invitation<br />

to view the telescope, I was both confused and elated.<br />

As if sensing my predicament, Bill Hrudey reassuringly<br />

offered to assist in locating the telescope into a purpose-built<br />

facility. And, with the offer, a bond was established between<br />

donor and recipient which has culminated not only in the<br />

University College of the Cayman Islands receiving the original<br />

12.5” Newtonian telescope, but also the service and support of Bill<br />

Hrudey until his passing in 2018.<br />

That chance meeting and the acceptance of the<br />

telescope has led to the establishment of a first-class solar<br />

observatory on the University College’s Campus. This<br />

observatory is equipped with state-of-the-art ICT equipment<br />

and a powerful array of modern telescopes. Until his passing<br />

www.the-intellectual-magazine.com<br />

“Bill”, as we affectionately addressed him, was the lone staffer in<br />

this observatory. Working long hours, he volunteered his services<br />

not only in conducting valuable solar research, but also in teaching,<br />

organising and promoting STEM in these Islands.<br />

A retired neurosurgeon by training, “Bill”, was an equally<br />

passionate scientist and engineer. He designed and fabricated<br />

all the components for the automated retractable roof of the<br />

observatory. His passion for the promotion of science education<br />

led to him entertaining and demonstrating his work to literally<br />

hundreds of school children and adults<br />

from the Caymanian community.<br />

It was, however, his passion<br />

and leadership in establishing the STEM<br />

annual conferences at UCCI for which<br />

he will be remembered most fondly.<br />

From humble beginnings, albeit with<br />

heavyweight contacts, Dr. Shirin Haque<br />

(University of the West Indies, St.<br />

Augustine Campus) and Dr Ed Guinan<br />

(Villanova University) and support from<br />

President Bodden, Kristel Sanchez and the<br />

STEM Planning Committee, the STEM<br />

Carib Conferences have an established<br />

reputation.<br />

Most recently, partnering with Harrisburg University of<br />

Science and Technology (Harrisburg, Pennsylvania) has brought<br />

additional eminence and expertise. This past Conference, the<br />

sixth since the inception, was the greatest by all accounts. With<br />

STEM an important plank in the UCCI programme offerings<br />

and excellent support from corporate donors and the Ministry of<br />

Education, it was accurate to record that Dr. Bill Hrudey’s efforts<br />

have now become contagious. The sacrifice and commitment of<br />

this neurosurgeon cum scientist has been a blessing to UCCI.<br />

Those of us who came to know him will always miss his inspiration,<br />

willingness and expertise and, although he is no longer with us,<br />

his exemplary conduct serves to inspire us. Sadly, Bill passed away<br />

earlier this year. His spirit lives on in the inspired minds, both<br />

young and old, which he has touched.<br />

May his soul rest in peace.<br />

PHOTO CREDIT - Lance Parthe<br />

5


Roy Bodden<br />

It was back in 2012 that I first met the<br />

President of UCCI, Mr. Roy Bodden,<br />

as I visited the campus and Grand<br />

Cayman for the first time ever. It was<br />

to run a teachers’ workshop in Astronomy<br />

on the invitation of the late Dr. William<br />

Hrudey, the director of the Astronomy<br />

observatory being commissioned at UCCI<br />

at the time. Little did I know then, what a<br />

marvelous future was in store for Science<br />

for the next six years for the people of the<br />

Cayman Islands! With the bold vision<br />

of Dr. Hrudey and the unconditional<br />

unstinting support from President Bodden<br />

– these two gentlemen set to change the<br />

trajectory of the lives of the youths in<br />

Grand Cayman and make them players<br />

in the world of Science, Technology,<br />

Engineering and Mathematics. The first<br />

STEM Carib was held at UCCI just a<br />

mere six months later from when the idea<br />

took birth. UCCI has some of the finest<br />

people among its staff and Ms. Kristel<br />

Sanchez, Director of Marketing and<br />

Ms. Wendy Lauer, executive assistant<br />

to the President, were the background<br />

a man of substance<br />

Shirin Haque<br />

foundations of the programme,<br />

playing major roles in its success and<br />

implementation without breaking a<br />

sweat.<br />

Thinkers and game changers<br />

happen along only rarely in the world.<br />

They carry a different energy about them.<br />

Humility and deep concern and caring<br />

for their people are a hallmark. This was<br />

unmistakable in Roy Bodden since our<br />

first meeting ever, and if you happened to<br />

observe him walking among the students<br />

in the corridors of UCCI. He connected<br />

with them and they connected with him<br />

as a beacon of hope. He and UCCI were<br />

their portal to education and a better life<br />

and more opportunities.<br />

He understood the condition of<br />

the Caribbean people and in particular<br />

that of the Caymanians. Our histories<br />

define us and none embodied that better<br />

than Roy Bodden. It is a gift to us all that<br />

he has penned his thoughts and written<br />

and published several books on the<br />

social, cultural, economic and political<br />

evolution of the Cayman Islands.<br />

In 2017, UCCI ran a summer<br />

school for students of Harrisburg<br />

University in Solar Astronomy. In his<br />

opening remarks, Roy Bodden gave a very<br />

short but immensely moving speech on<br />

the history of the islands. I came to learn<br />

and understand the Caymanian situation<br />

and history much better myself despite<br />

being an island girl. Each island carries<br />

its own pains, torments and striving. It is<br />

thus no surprise that his latest published<br />

work is “Reflections from a broken mirror:<br />

Poems about Caymanian Society”. He<br />

describes himself as a ‘self-imposed griot<br />

and poet’, as he uses the medium of verse<br />

to utter an anguished cry for his beloved<br />

Cayman Islands. It is the cry of the son of<br />

the soil. The cut is deep.<br />

The islands of the Caribbean<br />

are small, some having populations no<br />

more than a city or a very small town in<br />

the developed world. In such a scenario,<br />

the intellectual is needed more than ever<br />

to make a difference. Roy Bodden is truly<br />

such a man of substance and he has left<br />

behind him a legacy at UCCI during the<br />

nine years he has been at the helm. Many<br />

hearts and minds are forever changed<br />

and indebted to him. Thank you, Roy, for<br />

making a difference in the Caribbean and<br />

especially in the Cayman islands Islands.<br />

You have certainly left your mark and with<br />

your leadership, we will continue to rise!<br />

6 www.the-intellectual-magazine.com


STEM 2018 | Special Edition<br />

and still we rise!<br />

J.A. Roy Bodden<br />

We’ve been<br />

Beat down, spat on and frowned upon<br />

Kicked around, ran out of town and taken as<br />

a clown<br />

Disrupted, interrupted, and bankrupted…<br />

Talked about, called a lout and made to shout<br />

Expelled from school, played for a fool and<br />

called a ghoul<br />

Slapped in the face, allowed no grace, and<br />

cursed for our race…<br />

Spooked and scorned and told: we should have<br />

never been born<br />

Sundried, hog tied and left by the way side…<br />

Cheated, unseated, and defeated…<br />

• The Cayman Islands:<br />

Social, Political and Economic Challenges 1950-1978 (Nor’Wester magazine Oct 1978)<br />

• The Cayman Islands in Transition:<br />

The Politics, History and Sociology of a Changing Society.<br />

• Stories My Grandfather Never Told Me:<br />

A Collection of Caymanian Short Stories;<br />

• Patronage, Personalities and Parties:<br />

Caymanian Politics From 1950 to 2000;<br />

• A Gathering of Old Men -<br />

a collection of stories from Guard House<br />

• Reflections from a Broken Mirror –<br />

Poems about a Caymanian society<br />

BOOKS<br />

By Roy Bodden<br />

Told we were read and left for dead<br />

Mortified, falsified and petrified<br />

Jumped upon, dumped upon and stumped<br />

on…<br />

We’ve been<br />

Battered, splattered but never flattered,<br />

Run around, put in the ground and chased by<br />

a hound<br />

Coverted, deserted and perverted<br />

And still we rise!<br />

t h i s c e r t i f i c a t e i s p r e s e n t e d t o<br />

f o r h i s v i s i o n , l e a d e r s h i p ,<br />

s e r v i c e a n d d e d i c a t i o n<br />

t o t h e a d v a n c e m e n t o f<br />

S T E M E d u c a t i o n i n t h e C a y m a n I s l a n d s<br />

a n d a l l o w i n g m a n y y o u n g p e o p l e<br />

t o r e a c h f o r t h e s t a r s .<br />

Reproduced with permission by author J.A.<br />

Roy Bodden as it appears in “Reflections<br />

from a broken mirror – Poems about<br />

Caymanian Society” (2014)<br />

www.the-intellectual-magazine.com<br />

7


STEM 2018 | Special Edition<br />

Don’t Try<br />

The Physics of<br />

Hollywood Movies<br />

Using Movies to Teach Physics<br />

Adam Weiner<br />

“Have you ever asked yourself while watching some phenomenal stunt in an<br />

action movie, eye popping technology in a science fiction movie, or those amazing<br />

superheroes, “Could any of that really happen, is this at all possible?” Well,<br />

armed with a fundamental knowledge of some basic physics principles we can<br />

answer many of these questions. We can effectively assess the convergence<br />

between the fantasy of film and real scientific principles as we understand them<br />

and we can use our analysis as a stimulating way to teach the subject of physics.<br />

I was invited to address these issues at the recent STEM Carib Conference.<br />

The focus was on Superheroes: Fact versus Fiction and I attempted in my<br />

presentation to illustrate how we can use science to assess what we see in the<br />

fictional world of film and use the whole thing as an engaging educational tool.”<br />

8 www.the-intellectual-magazine.com


STEM 2018 | Special Edition<br />

This at Home!<br />

I<br />

have been a high school physics<br />

teacher in California for the past 23<br />

plus years, and over that time I have<br />

discovered (among other things!)<br />

that the more accessible, and engaging the<br />

applications that we do in class are to the<br />

students, and the more they connect to<br />

their own experience, the more the students<br />

enjoy and get involved in the subject.<br />

We have approached this in a variety of<br />

ways, however one of the most successful<br />

applications with the students has been the<br />

analysis of scenes in Hollywood movies as a<br />

springboard to applying some real Physics.<br />

Over the years of doing this both informally<br />

and as a student project I have discovered<br />

that when put in this context my students<br />

suddenly became really interested in the<br />

results of their analysis. While end-of-thechapter<br />

textbook problems may be relevant<br />

and necessary exercises in developing<br />

understanding of concepts, it is rare that<br />

the students find these compelling and<br />

exciting. No one has probably been kept up<br />

at night wondering about the coefficient of<br />

friction necessary to keep a generic block<br />

from slipping on a hypothetical incline. Yet<br />

if instead we are trying to find out what the<br />

actual physical limitations to the top end<br />

running speed of “The Flash” are based on,<br />

what we know to be true about frictional<br />

forces, the answers often become a much<br />

more urgent, interesting and relevant<br />

concern.<br />

In the presentation at STEM Carib<br />

we took a variety of movie scenes from the<br />

Superhero movie world and analyzed them<br />

as examples in applying real world science<br />

to the fictional universe, and demonstrated<br />

how these could be incorporated into a<br />

www.the-intellectual-magazine.com<br />

Physics or science class as a way of teaching<br />

a fundamental concept. We looked first at<br />

some of the technical and physical issues<br />

that would have to be addressed if you were<br />

a non-super-powered superhero such as<br />

Batman or Iron Man. For example, would<br />

Batman’s wings work as shown in a scene<br />

from “The Dark Knight”? We find, that by<br />

applying the principles of Newton’s Laws<br />

of Motion and Conservation of Energy, his<br />

flight trajectory as portrayed in the scene<br />

is in fact plausible. On the other hand, his<br />

collision speed when he hits a window later<br />

in the scene is realistically upwards of 50<br />

miles per hour and therefore realistically<br />

probably not survivable for a normal<br />

human even if he has fancy armor like<br />

Batman does.<br />

In the realm of those heroes<br />

with actual, bona fide superpowers, we of<br />

course recognize that we cannot hold these<br />

strictly accountable to science as we know<br />

it or we wouldn’t have much to talk about<br />

and might as well go home. Nevertheless,<br />

what we can do is, acknowledging these<br />

powers, discuss some of the requirements<br />

and consequences that still would have to<br />

be true.<br />

For example, basic laws of physics<br />

are often completely disregarded in the<br />

action sequences involving superheroes.<br />

Newton’s Third Law (for every action there<br />

is an equal and opposite reaction) usually<br />

disappears for superheroes. In a scene from<br />

the movie “Hancock”, the hero of that name<br />

flings a beached whale back into the ocean.<br />

Analyzing the action by applying Newton’s<br />

Third Law we find however that in reality<br />

the reaction force acting back on Hancock<br />

would be so big that it would cause him to<br />

recoil at a speed fast enough to send him into<br />

orbit! The movie illusion with superheroes<br />

is that if you have super strength, reaction<br />

forces do not apply. But they do! Another<br />

issue with superheroes is with energy.<br />

That is, where do they get it? In X-Men<br />

first class Magneto is able to lift a nuclear<br />

submarine with his magnetic field thus<br />

giving it a humongous amount of potential<br />

energy. But that energy had to come from<br />

somewhere. But where would he get it?<br />

Well eating food is normally how it is done.<br />

However, to do the kind of heavy lifting we<br />

see in the movie, if Magneto metabolizes<br />

like a normal human he would have to eat a<br />

large pizza every 6 minutes, 24 hours a day.<br />

That might lead us to some speculations in<br />

the realm of Modern Physics and we might<br />

hypothesize that his stomach acts more<br />

like a nuclear fusion reactor than a normal<br />

human stomach, and he converts mass to<br />

energy according to Einstein’s mass energy<br />

equivalence equation E = mc 2 which is of<br />

course much more efficient than pesky old<br />

chemical metabolism!<br />

The above examples are pulled out<br />

as some highlights from my presentation<br />

at STEM Carib (without the specific<br />

quantitative part of the analysis), and they<br />

represent only an informal taste of what<br />

you can explore with “movie Physics”. It’s<br />

fun to do, and I think it is a powerful way<br />

of engaging students’ attention in the study<br />

of physics and other sciences.<br />

9


STEM 2018 | Special Edition<br />

The<br />

Science<br />

of<br />

Magic<br />

Richard McLeod<br />

The keynote speaker had spoken of the physics<br />

of comic book and Hollywood heroes and<br />

the magic show partly reflected this. Water<br />

in a glass jug turned black when the magic<br />

words were spoken (Harry Potter), a playing card<br />

with a large hole that finger went through was turned<br />

around and the hole was peeled off (cartoons) and an<br />

unbendable signed coin was bent by saying the magic<br />

words (super strength). In other magic, ropes changed<br />

length, balls in a tube impossibly changed their order<br />

and finally, in a flash of fire, three cupcakes appeared<br />

in an empty baking tin, for 3 student volunteers to<br />

taste. It is difficult to describe a magic show in words.<br />

You would have to be there to experience it. Judging<br />

by the excitement of the more than 100 primary school<br />

students together with a few teachers and other adults,<br />

they enjoyed the show.<br />

10<br />

www.the-intellectual-magazine.com


STEM 2018 | Special Edition<br />

An HU student is pictured conducting Acid Mine Drainage research<br />

withProfessor Rachel Fogle.<br />

Research<br />

Ethics<br />

&<br />

Scientific<br />

Integrity<br />

Rachel Fogle<br />

Science, technology, and medicine are driving<br />

forces in our society. Although ethics topics<br />

are widely taught across a multitude of<br />

disciplines, very rarely are ethics methods<br />

established in that learning process. If learning<br />

stops at ethics topics, there is a disservice as those<br />

individuals are only equipped to respond to the<br />

particular topics to which they have been introduced.<br />

Therefore, as research and technology are changing<br />

society and the way we live, it is crucial that scientists<br />

understand the ethical and social aspects of their<br />

work.<br />

Highlighting the difference between<br />

consequentialist and deontological ethical systems,<br />

the historical “trolley problem” allowed a platform<br />

for introduction of a specific ethics method.<br />

Suppose you are the driver of a trolley car<br />

cruising at 60 mph and you just lost braking power.<br />

You feel helpless, as you are heading directly towards<br />

five workers on the tracks. But… you then notice<br />

that there is a sidetrack up ahead, and there is only<br />

one worker on those tracks. Your steering wheel<br />

works, so you can turn the trolley car onto the<br />

sidetrack. What do you do?<br />

This scenario, along with expanded options<br />

(and some engaging discussion!), introduced the<br />

difference in locating morality in the consequences<br />

of an act versus locating morality in certain absolute<br />

moral requirements (certain duties and rights)<br />

regardless of the consequences.<br />

Like a scientific method is applied when<br />

addressing a scientific question, it aims to teach<br />

persons to apply a particular ethics method<br />

when addressing an ethical dilemma. The SFNO<br />

Framework developed by James M. DuBois –<br />

Stakeholders, Facts, Norms, and Options – allows<br />

organization of information and, notably, can be<br />

applied to essentially any ethical dilemma.<br />

www.the-intellectual-magazine.com<br />

SFNO Framework - So Far No Objections<br />

Stakeholders<br />

• Who has stake in the<br />

decision being made?<br />

Norms<br />

• What ethical principles,<br />

norms, or values are at<br />

stake?<br />

• What prefessional codes or<br />

laws?<br />

Facts<br />

• What facts are relevant to a<br />

solution?<br />

• Which may generate<br />

disagreement?<br />

Options<br />

• What actions deserve serious<br />

consideration?<br />

• If ideal is not possible, which<br />

compromises are most attractive?<br />

Two specific topics of interest via case studies included 1) research<br />

misconduct – learning the differences between falsification, fabrication,<br />

plagiarism, and related questionable research practices and 2) plagiarism versus<br />

self-plagiarism and related questionable writing practices. These case studies<br />

allowed persons, in a team environment, to “walk through” an ethical decision<br />

making process to come to a course of action. Broadly, once teams identified the<br />

ethical dilemma (or question), a multiple-step process was then followed. The<br />

information was organized by the SFNO framework, the primary conflict was<br />

identified (e.g., was the primary conflict between stakeholders, facts, or norms),<br />

the decision was justified, and a course of action was selected.<br />

While many of the ethical principles in science relate to the production<br />

of unbiased scientific knowledge, which is crucial for continual advancement<br />

of knowledge and extension of research findings, scientists face a multitude<br />

of other ethical dilemmas on a much more regular basis than one would like<br />

to think. There are ethical decisions relating to human subjects research, the<br />

welfare of laboratory animals, conflicts of interest, data management practices,<br />

mentor/trainee responsibilities, authorship and publication, and the list goes<br />

on and on. Although the frequency with which scientists commit scientific<br />

misconduct is a matter of controversy, scientists have increasingly been in the<br />

spotlight for negative reasons. Promotion of scientific integrity, development of<br />

guidelines for scientific research, and investigation of allegations of misconduct<br />

are some of the main tasks of the Office of Research Integrity, founded in 1992.<br />

Therefore, equipping the next generation of scientists with a more defined<br />

ethical framework will provide a more solid foundation for responsible conduct<br />

of research.<br />

11


STEM 2018 | Special Edition<br />

Virtual Reality<br />

For All!<br />

Charles Palmer<br />

Students and faculty of the Interactive Media program<br />

at Harrisburg University devote considerable time and<br />

resources to exploring new technologies. We explore how<br />

technical tools and advances can be applied to create new<br />

careers and businesses. Through this work, we have been<br />

successful in training our students to become innovators<br />

and subject matter experts. Over the past several years<br />

virtual and augmented reality tools have seen substantial<br />

growth in several broad markets.<br />

For STEM Carib 2018, Professor Charles Palmer<br />

worked with a small group of UCCI students to<br />

experiment with building virtual reality experiences.<br />

Using a web browser and their mobile phones,<br />

students used primitive shapes to construct a simple scene.<br />

The workshop included instruction on topics as diverse<br />

as working in 3D space, rendering with the tag structure,<br />

modifying objects through variable manipulation, and<br />

using hexadecimal colors. Although the students built only<br />

simple scenes, these skills are transferable across the 3D<br />

development landscapes. Entrepreneurial students can use<br />

these skills to build applications for marketing, training,<br />

entertainment and advanced scientific visualization.<br />

Web VR is a great introduction to the virtual<br />

reality development. It’s completely free and works within<br />

the Firefox web browser. But don’t just take our word for it,<br />

go to http://bit.ly/WebVR_Demo and follow along with the<br />

simple instructions to build your own project.<br />

VR Fun for the Family<br />

For the third year in a row, Harrisburg University facilitated a few hours of fun in Virtual Reality. Virtual Reality is used in<br />

a wide variety of industries. Psychologists use VR to heighten traditional therapy methods and find effective solutions for treatments<br />

of PTSD, anxiety and social disorders. Companies like Walmart and American Airlines use the platform to train new employees in<br />

customer relations and safety procedures. Its even being used to help people with autism develop social skills by putting them in<br />

scenarios like job interviews and blind dates.<br />

This year, HU setup an Oculus Rift virtual reality system where guest had the opportunity to experience a virtual carnival<br />

midway. Using a headset and controllers, guests were able to test their basketball skills, whack virtual moles, shoot flaming arrows and<br />

play several other games.<br />

12 www.the-intellectual-magazine.com


STEM 2018 | Special Edition<br />

Jumping into<br />

Collegiate<br />

Esports<br />

Although, many people are still asking “what is<br />

esports” those in the know, know its huge impact<br />

in the video gaming world. Simply put, esports is<br />

Players gather as a team or as solo combatants to<br />

compete in virtual arenas for an audience. In most<br />

cases the audience is online, but large contests like<br />

this past summer’s Overwatch League Grand Finals<br />

are hosted simultaneously to a sellout crowd of 19,000 in<br />

the Barclays Center and an estimated 350,000 online via the<br />

streaming media service, Twitch.<br />

Esports games vary from “multiplayer online battle<br />

arenas” or MOBAs, to real-time strategy games like StarCraft<br />

2, to hybrid games like Rocket League (a mashup of demolition<br />

derby and soccer), to digital versions of traditional sports<br />

(FIFA, Madden and NBA2K) And the esports audience is<br />

huge, by anyone’s standards.<br />

President Eric Darr and Professor Charles Palmer<br />

presented facts about the growing industry and how<br />

communities can rally behind the sport to develop local<br />

teams and compete on the global stage. The talk included<br />

statistics such as revenue generated in 2018 ($906M), audience<br />

demographics (38% women, 62% men), top Twitch streamers<br />

(FaceItTV), top game (Fortnite, 18% market share) and the<br />

growing number of collegiate teams (101-member teams in<br />

NACE). The professors also debunked several myths about<br />

esports and share valuable insight into competitive gaming for<br />

players and investors.<br />

Aside from sharing information about the industry,<br />

Dr. Darr and Professor Palmer also illustrated how colleges<br />

and universities can build academic programs to support this<br />

lucrative industry. Many of these careers, such as network<br />

technician, IT support, market analyst, content creator and<br />

game developer are rooted in STEM disciplines and are easily<br />

mapped to traditional degree curricula and core competencies.<br />

If you were not able to attend the lively talk, be sure<br />

to visit the UCCI Youtube channel to watch the presentation<br />

in full. And don’t forget to follow the HU Storm (http://<br />

instagram.com/HUstormesports) as they continue to dominate<br />

the collegiate esports landscape.<br />

www.the-intellectual-magazine.com<br />

Eric Darr & Charles Palmer<br />

competitive video gaming.<br />

Game Types<br />

• Multiplayer Online Battle Arena<br />

League of Legends, DotA, Smite<br />

• Real-time strategy<br />

Starcraft<br />

• First person shooter<br />

Overwatch, Call of Duty, CS:GO<br />

• Fighting<br />

Street fighter, Super Smash Bros.<br />

• Sports<br />

FIFA, NBA2K, Madden<br />

• Battel Royal<br />

Fortnite, PUBG, Clash Royale<br />

• Other<br />

Hearthstone, Roacket League<br />

Global Statistics<br />

• Revenue will reach $906 million this year (up +38.2%)<br />

• Brand investment expected to reach $694 million<br />

• 588 major Esports events in 2017 generated $59 million<br />

• Prize pools for 2017 broke the $100 million<br />

• 2017 League of Legends World Champions watched by<br />

49.5 million<br />

• 2018 Overwatch Finals hit 10.8 million (not bad for the<br />

first season)<br />

ESPORTS REVENUE STREAMS<br />

GLOBAL | 2018<br />

MERCHANDISE & TICKETS<br />

$95.5M<br />

+16.2%<br />

GAME PUBLISHER FEES<br />

$116.3M<br />

+11.0%<br />

11%<br />

SPONSORSHIP<br />

$359.4M<br />

+53.2%<br />

13%<br />

2018 TOTAL<br />

$906M<br />

+38.2%<br />

YEAR ON YEAR<br />

40%<br />

Key Takeaways<br />

MEDIA RIGHTS<br />

$106.7M<br />

+72.1%<br />

18%<br />

19%<br />

ADVERTISING<br />

$173.8M<br />

+23.8%<br />

• Global industry providing technical careers<br />

• Scholarships provide greater college opportunities<br />

• Aligns with STEM<br />

• Builds partnerships at the local, national and international<br />

levels<br />

• Builds competencies in that areas like communication,<br />

critical thinking, collaboration, and teamwork<br />

13


STEM 2018 | Special Edition<br />

Growing Plants on Mars - Mars<br />

Gardens in the University:<br />

Growing Vegetables in Martian regolith simulant<br />

Edward Guinan, Gianinna Guzman & Scott Engle<br />

Within the next few decades NASA and private<br />

enterprise missions such as SpaceX-Mars plan to<br />

send human missions to Mars with the ultimate<br />

aim to establish a permanent human presence<br />

on this nearby planet. For a self-sustaining colony on Mars it<br />

will be necessary to provide food by growing plants in heated/<br />

sheltered greenhouses. As part of an undergraduate student<br />

project in Astrobiology at Villanova University, experiments are<br />

being carried out, testing how various plants grow in the Martian<br />

regolith (soil). The plants are being grown and tested in Mars<br />

iron-rich regolith simulant commercially available from The<br />

Martian Garden (TheMartianGarden.com). This Mars regolith<br />

simulant is based on Mojave Mars Simulant (MMS) developed by<br />

NASA and JPL for the Mars Phoenix mission. Additional reagents<br />

were added to this iron-rich basalt to bring the chemical content<br />

close to the actual Martian regolith. It is ~90% similar to regolith<br />

found on the surface of Mars - excluding poisonous perchlorates<br />

commonly found on actual Mars surface. Since Mars is 1.52 a.u.<br />

from the Sun, the ambient surface solar light insolation is about<br />

~43% Earth. A wide variety of plants and vegetable are being grown<br />

and tested. These include carrots, spinach, dandelions, kale, soy<br />

beans, peas, onions, garlic, Jerusalem artichokes, and of course<br />

potatoes, and sweet potatoes. In Spring 2018 barley and hops<br />

have been planted in the MMS in larger quantities with the<br />

hope of making Martian beer. Also earthworms and red worms<br />

have been introduced to test their viability. The worm castings<br />

(excrement) will be used to enrich the Martian soil. The results<br />

of this project will be discussed from an educational viewpoint as<br />

well as from usefulness in Martian botany research.<br />

I brought 5 kg of Mars soil simulant and gave it out to<br />

grade and high school teachers and students so that they could<br />

experiment testing growing plants in Mars soil. I suggested trying<br />

out a local vegetable like ‘dasheen bush used in making callaloo,’<br />

as well as lettuces and micro-greens.<br />

We thank the Dept. of Astrophysics and Planetary<br />

Science (Villanova University) for financial support and the<br />

Biology Department for the use of their campus greenhouse.<br />

14 www.the-intellectual-magazine.com


STEM 2018 | Special Edition<br />

No Lab<br />

Required<br />

Antoinette Gayle<br />

The interactive science experience session<br />

entitled ‘problem solving with chemistry’<br />

was a continuation of the plan for the<br />

UCCI STEM conference to provide more<br />

hands-on activities for primary level students. The<br />

ideas for the activities were born from the thinking that<br />

children should be able to do science at home with their<br />

parents and teachers can do science at schools with<br />

their students without needing a lab and specialized<br />

equipment or using harmful chemicals.<br />

With more than 50 participants in each of<br />

two sessions hosted in the chemistry lab at UCCI, the<br />

session was a tremendous success. The activities were<br />

a great hit as students were guided through chemical<br />

principles of static electricity, buoyancy, acid-base/<br />

indicator interactions, membranes, surface tension and<br />

friction using safe, everyday substances such as milk,<br />

food colouring, fruit, turmeric, rubbing alcohol, and<br />

balloons. A few of the activities are outlined on the<br />

right:<br />

www.the-intellectual-magazine.com<br />

Surface tension: Painting with milk<br />

Placing a ½ - 1” layer of milk on a bottom of a wide<br />

container formed the ‘canvas’. Students then added drops of<br />

food colouring in different areas of the bowl without crowding<br />

the drops or shifting the container. A drop of dish soap was then<br />

placed in the center of the container. The dish soap lowers the<br />

surface tension of water in the milk, causing the liquid molecules<br />

to move away from the center of the container taking the food<br />

colouring with it, thus creating a ‘painting’.<br />

Indicators: Sending a secret message<br />

Using Chinese whispers (Chinese telephone) is not the<br />

best way to send a secret message as invariably, the message<br />

becomes garbled or changed in some way as it is passed from one<br />

person to another. Students created invisible ink and used it to pass<br />

secret messages to their friends using the principle of indicators.<br />

Tumeric, found in curry powder, changes colour based on the pH<br />

of the solution. Writing a message using a cotton swab dipped<br />

in a baking soda solution, results in ‘invisible’ writing once it is<br />

dried. Applying turmeric (or curry powder) dissolved in rubbing<br />

alcohol (this was done with a paint brush) results in a bright red<br />

colour and causes the ‘invisible’ writing to become visible, thereby<br />

revealing the secret message.<br />

These, among other activities and demonstrations, kept<br />

the children from grades 3 – 6 occupied for over an hour. The<br />

teachers were just as fascinated with the activities and with the<br />

idea that they could do chemistry with their children and students<br />

using basic, everyday supplies which are safe for everyone and<br />

can be found in any home.<br />

15


STEM 2018 | Special Edition<br />

Fingerprint<br />

Fun!<br />

Terrill Frantz<br />

It’s highly personal …. Your fingerprints<br />

are unique among the 70+ billion<br />

human fingers on this planet, just as<br />

you are a unique person amongst<br />

every one of us. Even the fingerprints<br />

of identical twins are unique to their<br />

sibling’s!<br />

Since the 1930s, and to this day, fingerprints are commonly used<br />

to identify persons at a crime scene, but as recently as 2005, your<br />

fingerprint could be used to unlock your laptop; and as of around<br />

five years ago, your fingerprint could even be used to unlock your<br />

phone. Of course, now even a car or a door-lock can be opened with just<br />

your fingerprint.<br />

In the past, the technology for imaging a fingerprint and<br />

comparing it with a collection of prints “on file,” was a time-consuming<br />

and laborious task. A “print” of a finger was taken and stored on a piece<br />

of paper, then placed somewhere on a pile, perhaps in a shoe-box.<br />

Today, fingerprints are collected using a simple imaging scanner. The<br />

electronic image (think, digital photograph) is then transformed into a<br />

mathematically-friendly set of encoded data, which is then stored in an<br />

electronic database, usually on a computer disk.<br />

At the 2018 STEM Conference, students were introduced to a<br />

“fingers-on” experience with a modern fingerprint processing system.<br />

The students learned about and explored the steps in fingerprint<br />

collection, electronic storage, and computational comparison in a onehour<br />

workshop conducted by Associate Professor Terrill L. Frantz of<br />

Harrisburg University of Science and Technology.<br />

Indeed, students were especially curious about how an image<br />

of a finger could be obtained on their phone to unlock it and why no<br />

“green light” was visible during the process – the fingerprint system used<br />

in the workshop used a different image capture process that featured a<br />

green light-oriented scanner. Some pondered how easy it might be to<br />

“fool” the system with a fake finger, or even the finger of a corpse!<br />

At the workshop, even some adults got into the action by<br />

wondering how such a process could be used in their work, both in<br />

the classroom and in the administration. Of course, application of<br />

fingerprinting can be a sensitive issue, given the increasing concerns<br />

about personal privacy, identity theft and overall security.<br />

For readers still curious about how fingerprints are cataloged<br />

and processed electronically: First, on your phone invisible rays are<br />

pointed outward from within the screen and the tiny ridges in your<br />

finger reflect back to an electronic sensor capturing the tiny variations in<br />

your skin; yes, very tiny! (some devices can sense the minute differences<br />

in pressure provided by the tiny variations in your skin when you place<br />

your finger in the screen.) From the pixelated image that is captured,<br />

software inspects the patterns on the image with an aim of identifying<br />

the unique features of the fingerprint. Such features include the (left or<br />

right) loops in the lines, any whorls, arches, and “tented” arches. Some<br />

processes even classify individual sweat pores in the finger. Anyway, these<br />

characteristics and their specific positions on the finger are recorded as<br />

data. This data is transformed into a special variable called a “hash” that<br />

makes the data quickly indexable for storage and later retrieval. When<br />

electronic fingerprints are compared, the “hash” values are compared<br />

mathematically and a closeness “score” is computed. From this single<br />

number--the score--analysts can immediately accept the match or select<br />

the ‘possible’ match for closer, usually human, comparison.<br />

The science of fingerprinting is improving every year and we can<br />

easily imagine that the technology will only improve in its usability and<br />

comparative-accuracy. We can certainly expect that not only fingerprints<br />

but several other biometric-based techniques for identification, e.g., face<br />

and voice recognition, will become more prominent in our daily lives.<br />

Fingerprints are a fascinating gift from nature!<br />

16 www.the-intellectual-magazine.com


STEM 2018 | Special Edition<br />

S<br />

C I E N<br />

C<br />

E<br />

A<br />

I<br />

R<br />

W<br />

I<br />

N<br />

E<br />

R<br />

Finlay Dacker began researching the inventor Archimedes and with that his<br />

Archimedes Screw. An Archimedes Screw is a simple machine that consists<br />

of a screw inside a hollow pipe. In the olden days, the screw is usually<br />

turned by manual labor or cattle to move a low body of water to irrigation<br />

systems, or in modern times by means such as a motor. As the shaft turns, the<br />

bottom end scoops up a volume of water. This water is then pushed up the tube by<br />

rotating the pipe until it pours out from the top of the tube<br />

Finlay built 3 different Archimedes Screws, where the length of tubing<br />

would determine how many turns were needed to move the water, and with that<br />

how much water would be moved with each Archimedes Screw. Finlay built his<br />

models with PVC-pipes and 3 different lengths of clear tubing: 7”, 4” and 2”. Also,<br />

to better see the results of his experiments he placed the clear tubing on the outside<br />

of the pipes and used coloured water to be moved from one container to the other.<br />

Finlay concluded that the length of the tubing indeed affects the amount<br />

of turns needed to move the water. Moreover he concluded that other factors, such<br />

as width of the tubing may also have an effect on moving the water as well as time<br />

needed. These factors may make usage of the screw extremely costly in present<br />

times. However this would have to be established by further experiments.<br />

www.the-intellectual-magazine.com<br />

17


24 engaging STEM experts | 50 captiv<br />

An awesome teaching-<br />

18 www.the-intellectual-magazine.com


ating sessions | Over 850 attendees<br />

learning experience!<br />

www.the-intellectual-magazine.com<br />

19


STEM 2018 | Special Edition<br />

BUILDING BRIDGES THROUGH<br />

ROBOTICS OLYMPICS<br />

Von Ryan Gregorio Abrantes<br />

A world where people from diverse backgrounds work towards the same goal: using STEM to build a better world<br />

for the future generation, this sums up the advocacy of FIRST (For the Inspiration and Recognition of Science and<br />

Technology) Global Challenge (FGC). Founded by Dean Kamen, engineer, inventor and entrepreneur, FIRST<br />

Global aims to harness the power of enthusiasm and innovation residing in the minds of the youth and gather them<br />

in one Olympic style Robotics Competition, not only to compete for a title but to share ideas and inspire each other!<br />

A photo of President Pena Neto of Mexico, addressing the participants of the FGC 2018<br />

20 www.the-intellectual-magazine.com


STEM 2018 | Special Edition<br />

Team Cayman Islands Robotics Team during one<br />

of the matches<br />

In its second year, FGC was held in<br />

Mexico City, Mexico from August<br />

15-18 in 2018. Students, teachers,<br />

engineers, media organisations,<br />

policy makers and other STEM enthusiasts<br />

flew in to Mexico City and watched as 186<br />

countries competed against each other at<br />

Arena de Ciudad de Mexico. FIRST Global<br />

Challenge aims to highlight the ability of<br />

the participants to construct, program and<br />

control their robots to perform various<br />

challenges based on one of the 14 Grand<br />

Engineering Challenges of the National<br />

Academy of Engineering. The theme for<br />

2018 was “Energy Impact”. Team Robots<br />

must be able to deliver power cubes and<br />

solar panels to different power stations and<br />

turn a wind mill to accumulate as much<br />

points as possible within two and a half<br />

minutes. The Caribbean region was not<br />

left behind as many teams from Jamaica,<br />

Trinidad and Tobago, Bahamas, Bermuda<br />

and the Cayman Islands, among others<br />

participated excellently in the competition.<br />

Despite being a very intense<br />

competition, FGC has been true to its goal<br />

of promoting cooperation amongst nations,<br />

Cayman Islands Robotics Team poses next to the FIRST Global Challenge Logo<br />

and so, alliances were made between 3<br />

countries to encourage communication<br />

and partnership among the participants.<br />

Alliances can also acquire additional<br />

points if they successfully shared their<br />

power line cubes to an opposing alliance –<br />

this is called a “coopertition bonus”. Many<br />

teams brought spare parts with them to<br />

share with other teams in need. Some<br />

offered help to other teams that had issues<br />

with their robots even if they are from an<br />

opposing alliance. Participants were also<br />

keen to share gifts that reflect the culture<br />

of their countries and so many of them<br />

went home with a lot souvenirs and newfound<br />

friends. Also, worth mentioning,<br />

is the participation and involvement of<br />

girls in the competition. There is still a<br />

continuing effort to encourage women<br />

to take on STEM related professions and<br />

FGC is a fantastic opportunity to highlight<br />

how talented girls are in robotics. 75 out<br />

of the 186 teams who participated were<br />

founded, organised, or brought into being<br />

by women.<br />

As the technical mentor of the<br />

Cayman Islands’ inaugural Robotics Team,<br />

I felt immensely proud and honoured<br />

to be amid all the young people who are<br />

interested in STEM, particularly, robotics.<br />

The participants indeed represented the<br />

best of us and what we can accomplish<br />

together. The youths’ enthusiasm, drive<br />

and energy really inspired me to give more<br />

and work harder to encourage more young<br />

people to fall in love with STEM. FGC,<br />

reminds us that the collective effort of the<br />

youth, governments, parents and educators<br />

can make a significant impact and can be a<br />

huge step towards solving global problems!<br />

Team Cayman Islands presented<br />

their FGC entry robot, named: “The Kraken”<br />

during the 2018 STEM Carib Conference.<br />

Adrian Phillips-Hernaez, Ethan Cronier<br />

and Joe Allom-Perez shared their work in<br />

the building, designing, programming and<br />

controlling of their robot. They also shared<br />

their experiences in going to Mexico City<br />

and witnessing its cultural and historical<br />

richness. Glenda McTaggart, DART et.<br />

Education Program Manager, and Robotics<br />

Team Manager, and Von Ryan Abrantes,<br />

Technical Mentor, accompanied the<br />

Cayman Islands Team to Mexico City.<br />

For more information about the 14 Grand Engineering Challenge, visit the site of the National Academy of Engineering:<br />

http://www.engineeringchallenges.org/challenges.aspx<br />

For more information about FIRST Global, visit their website:<br />

https://first.global/fgc/<br />

www.the-intellectual-magazine.com<br />

21


STEM 2018 | Special Edition<br />

Discovering<br />

the truth<br />

with maps:<br />

Albert Sarvis<br />

Investigating spatial distribution of<br />

historic census data to challenge<br />

preconceptions of race, ethnicity and<br />

economic status<br />

Winston Churchill said “History is written by the victors.” What we read in books, are taught in history class, and see in<br />

documentaries are often that - singular perspective storytelling of past events. Thankfully these are not the only sources<br />

that reveal the past. By using historic United States Census data, college History and Geospatial Technology students<br />

have worked to build maps of historic populations that provide a different take on history using raw data. The “Digital<br />

Harrisburg” project is a collaboration between two central Pennsylvania schools, Harrisburg University and Messiah College, that took<br />

on the monumental task of digitizing and mapping over a quarter of a million census records from Harrisburg Pennsylvania from 1900<br />

to 1930.<br />

22 www.the-intellectual-magazine.com


STEM 2018 | Special Edition<br />

Of course digitizing hundreds of<br />

thousands of census records from 100 year<br />

old written archives into modern computer<br />

databases and subsequently mapping<br />

them is no small task. Perhaps that is<br />

why there has not been much objective<br />

and comprehensive work undertaken to<br />

examine this level of historic detail before.<br />

Over the span of 5 years, students and<br />

faculty have worked to digitize and map<br />

these historic records. Finding accurate<br />

base maps that show homes and addresses<br />

from this time period is not overly difficult,<br />

these maps have been archived in many<br />

places, but creating a modern map with<br />

the address information that allows us<br />

to place these historic census records is<br />

enlightening. Once mapped, historians and<br />

geographers can analyze the distribution of<br />

these individuals and glean an entirely new<br />

perspective, THE TRUTH, about them.<br />

www.the-intellectual-magazine.com<br />

The census records from the<br />

early 20th century contain a treasure<br />

trove of valuable information. Prior to<br />

1940 information was captured on every<br />

single individual. Attributes such as<br />

Race, Country of Origin, Occupation,<br />

Literacy, and Relation to Household can<br />

be revealed as a pattern across the entire<br />

city. The initial analysis on this project<br />

involved a detailed look at how race<br />

was distributed across the city. More<br />

specifically, a simple spatial analysis of<br />

the “mean center” of distinct population<br />

groups can be displayed. Over the 30 years<br />

mapped so far, the Digital Harrisburg<br />

team has mapped the mean center of the<br />

entire population for each decade and<br />

compared that to the mean center of the<br />

African American population. More<br />

specifically, just those African Americans<br />

living in homes where an African<br />

American was the head of household.<br />

This removed those individuals living<br />

as servants or boarders where White<br />

residents were the head of household.<br />

In the map below we see a dramatically<br />

different path of the mean center, between<br />

these two populations. The dark to light<br />

blue dots represent the African American<br />

population mean center from 1900 to<br />

1930 and the dark red to yellow represent<br />

the entire population mean center. Now<br />

the question is why did the paths of these<br />

points shift to the north for the African<br />

American population after 1910?<br />

This brings us back to the title of<br />

the STEM Carib talk. How do we discover<br />

the truth through these maps? Looking<br />

at the mean center of population example<br />

historians and geographers now see a very<br />

specific historical phenomenon that has<br />

not been revealed in history books up to<br />

this point. As we investigate why these<br />

patterns occurred, by looking at specifically<br />

where individuals moved to, where clusters<br />

of populations grew, and what about the<br />

city environment at the time caused these<br />

shifts, we begin to see the TRUE picture<br />

of early 20th century Harrisburg. The<br />

researchers hope is that these methods can<br />

be replicated in other cities in the US and<br />

beyond to help “Discover the Truth with<br />

Maps”.<br />

23


STEM 2018 | Special Edition<br />

Heavens<br />

What a Mess!<br />

William P. Schonberg<br />

Understanding and<br />

Dealing with the<br />

Problem of Space Junk<br />

The near-Earth region of space is<br />

full of man-made and naturallyoccurring<br />

objects. Some of the<br />

man-made objects are useful<br />

(for example, satellites that still work),<br />

while many of them are not and no longer<br />

serve any useful purpose (that is, they are<br />

space junk). Some of these pieces of space<br />

junk are fragments from explosions while<br />

others are from the breakup of satellites or<br />

rocket boosters. Since 1957, the near-Earth<br />

population of trackable space objects has<br />

grown from 1 to over 18,000. These objects<br />

are typically softball size or larger. Of these<br />

18,000+ trackable objects, only several<br />

hundred are operational spacecraft. In<br />

addition to the trackable objects, there are<br />

several hundred thousand objects the size<br />

of marbles and several million objects the<br />

size of sand grains.<br />

The rate at which rockets are<br />

launched into space has remained relatively<br />

constant over the past 50 years or so, at<br />

approx. 100-150 launches per year. In the<br />

early days of the Space Age, these rockets<br />

were mainly Russian and American;<br />

recently, however, China and other<br />

European countries have begun to send up<br />

rockets of their own as well. The purpose<br />

of about two-thirds of these satellites is<br />

typically communication, whether for<br />

commercial or military operations. The<br />

other third or so are for weather, research,<br />

and other reasons. In recent years, several<br />

companies have announced plans to<br />

launch several thousand satellites of their<br />

own, mainly for communication purposes,<br />

but also to provide a sort-of space-based<br />

world wide web.<br />

All spacecraft that operate in<br />

low-earth-orbit (such as the International<br />

Space Station and the large constellation<br />

satellites being planned for launch) are<br />

susceptible to high-speed impacts by these<br />

pieces of space junk, which is also called<br />

‘space debris’ or ‘orbital debris’. The threat<br />

of damage from high-speed orbital debris<br />

particle impacts has become a significant<br />

design consideration in the development<br />

and construction of long duration earthorbiting<br />

spacecraft. Even a marblesize<br />

piece of space debris can inflict<br />

considerable damage to or even destroy an<br />

orbiting operational spacecraft or satellite;<br />

a sand-grain-size piece of debris can<br />

even puncture a spacesuit! To protect our<br />

astronauts, considerable resources have<br />

been expended by NASA, the European<br />

Space Agency (ESA), and many other<br />

countries around the world to design and<br />

build spacecraft that can survive in the<br />

hostile space environment and which can<br />

be protected from damage by pieces of<br />

space junk.<br />

Of course, not all spacecraft<br />

will need the same amount of protection.<br />

Something like the International Space<br />

Station, which is extremely valuable and<br />

occupied by people, is heavily protected.<br />

Alternatively, a satellite in geosynchronous<br />

orbit is unlikely to be hit by a piece of debris<br />

and so typically has only a little or even no<br />

built-in protection. The basic spacecraft<br />

protection approaches are called Passive<br />

(which involves shielding a spacecraft<br />

or its critical components), Active (such<br />

as a collision avoidance maneuver), and<br />

Operational (the way a spacecraft is<br />

oriented as it travels around the Earth).<br />

It is clear that it is up to us to<br />

keep the space debris problem from<br />

getting worse. As space-faring nations,<br />

we need to, for example, ban anti-satellite<br />

testing and other deliberate fragmentation<br />

activities. We can also improve spacecraft<br />

design to limit accidental explosions<br />

during mission operations or at the end<br />

of a spacecraft’s useful lifetime. This can<br />

be done by making sure we deplete any<br />

remaining fuel or battery charge at the<br />

end of a spacecraft’s mission life (so-called<br />

“spacecraft passivation”). If we do not<br />

take steps to keep the space junk situation<br />

under control, the resulting unchecked<br />

growth of space junk could lead to a chain<br />

reaction of collisions that might then<br />

create a permanent, dense, earth-orbiting<br />

debris cloud (aka the Kessler Syndrome).<br />

24 www.the-intellectual-magazine.com


STEM 2018 | Special Edition<br />

Is it Engineering? Is it Art?<br />

Could it be Both?<br />

William P. Schonberg<br />

We often talk about engineering and art as if they were<br />

totally different. And, not surprisingly, if you look at<br />

a map of a typical college campus, the engineering<br />

building is often as far away as possible from the<br />

arts building. It’s almost as if we are determined to keep engineering<br />

students away from liberal arts majors! However, I believe that there is<br />

a strong, natural interaction and connection between these two areas,<br />

that this linkage should be reinforced, and that more people should<br />

be made aware of it. Many works of art rely heavily on engineering,<br />

and many engineering marvels have an intrinsic beauty that we all<br />

can appreciate.<br />

Of course, the reality is that technology is<br />

everywhere in society. It is an integral part of our daily<br />

lives - what we do, how we learn, and how we interact with<br />

others. Because technology is a part of everything we do, it<br />

shapes how our society evolves, and where it will evolve. To<br />

be a contributing member of today’s society, and especially<br />

if you are a decision-maker or leader who will need to make<br />

good decisions about technology issues as they arise in the<br />

future, I believe that everyone should be technologically<br />

literate at least at some level. One way to give everyone a<br />

basic level of technical literacy is through the arts.<br />

The relationship between “art” and “technology”<br />

has always been a close one. Both artists and technologists<br />

create works for everyone either to enjoy, or use, or both. In<br />

other words, “the arts help technologists communicate more<br />

beautifully, while technology helps artists to communicate<br />

in new and powerful ways.” –Luce Myers, Missouri S&T.<br />

There are many well-known works of art that can<br />

be said to showcase a variety of technological forms and<br />

advances. These include, for example, the modern Crown<br />

Fountain in Millennium Park – an interactive sculpture<br />

in downtown Chicago that uses LEDs to display digital<br />

videos on two 50 ft. towers that are placed on either end of<br />

a black granite reflecting pool – and the Statue of Liberty<br />

– a huge sculpture in New York Harbor that was designed<br />

by Frederic Auguste Betholdi, built by Gustave Eiffel (of<br />

Eiffel Tower fame), and given to the people of the United<br />

States as a gift by the people of France in the late 1880s.<br />

One only need glimpse the interior to of the statue to grasp<br />

the structural engineering marvels that are used to support<br />

its various features and elements. Engineering marvels<br />

are not only technological creations, they are works of<br />

art as well. Of particular note are the bridges designed by<br />

Robert Maillart, a Swiss civil engineer whose novel bridge<br />

designs and clever use of materials inspired engineers for<br />

generations to come around the world.<br />

www.the-intellectual-magazine.com<br />

TOP: Inside the Statue of Liberty<br />

(Photo: Panzarella/Flikr/CC BY 2.0)<br />

BELOW: Robert Maillart’s Salginatobel Bridge, Switzerland<br />

ABOVE: Statue of Liberty,<br />

New York Harbor<br />

Camouflage Art is a relatively new art-form that cleverly<br />

hides technology we develop that, while helping us reach new levels<br />

of productivity, is not very pleasant to look at. In particular, cellphone<br />

towers and windfarms are frequently referred to as eyesores by the<br />

public. In response to such criticisms, some areas have developed<br />

clever ways of masquerading cellphone towers so they blend with<br />

local geography and terrain (as, for example, either palm trees or tall<br />

evergreen trees).<br />

If we are successful in these endeavors, we will begin to<br />

provide a huge sector of our society the opportunity to play a part in<br />

shaping its and our destiny. Our leaders will possess the information<br />

and knowledge they need to make more informed decisions on issues<br />

that affect us and our planet. And, society as a whole will be better<br />

served – all members of society will be able to work together to move<br />

our civilization forward into its proper future.<br />

25


STEM 2018 | Special Edition<br />

Nanotechnology &<br />

Medical Biotechnology<br />

Fascinating but real Technologies!<br />

Leena Pattarkine<br />

For STEM Carib 2018, the theme was ‘Fact or Fiction!’ Looking<br />

at several commercialized technologies spanning healthcare<br />

(new cancer drugs, diagnostic devices, prosthetics etc), food<br />

and agriculture (Golden Rice, Probiotic Yogurts, Intelligent Food<br />

packaging), environment (bioenergy, water filtration devices),<br />

and even day-to-day life (sunscreens, waterproof fabrics,<br />

smart bandages), it is very obvious that Biotechnology and<br />

Nanobiotechnology have revolutionized these fields. The two<br />

sessions offered at the conference provided the perfect backdrop<br />

for validating this revolution tying it to the conference theme<br />

through hands-on activities!<br />

The ‘Medical Biotechnology’ session activity focused on Blood Biomarker-<br />

Based Cancer Diagnostics. This topic attracted tremendous response as<br />

evident from a jam-packed room. Using simulated blood samples from 6<br />

patients, students learnt how this type of diagnostics can help physicians as<br />

well as patients to detect cancer early, using a minimally invasive process. Students were<br />

introduced to several important medical biotechnology concepts such as development<br />

of cancer, biomarkers and their relevance to cancer, and diagnostics. The activity as<br />

well as the short presentation was received very well as apparent from the numerous<br />

questions and the feedback.<br />

The second session was dedicated to Nano-biotechnology. Nanotechnology<br />

is a field that deals with structures on nanoscales - 10 -9 m. These miniaturized structures<br />

exhibit some novel and remarkable properties which are exploited for creating<br />

innovative technology. One such property called ‘non- Newtonian’ behavior is being<br />

researched for developing ‘a liquid body armor’. Currently used body armor, are very<br />

heavy and not comfortable to wear.<br />

This nanotechnology-based approach is supposed to help create an ergonomic,<br />

flexible, and light-weight protective gear for soldiers. These nanoparticle suspensions<br />

are called as shear-thickening fluids, meaning they thicken upon application of force.<br />

They form hydroclusters upon impact and harden, thus help protect from the force<br />

impact. This is a transient response, i. e. as the impacting force is removed these<br />

particles go back into the suspension phase.<br />

Using corn-starch, water and<br />

eggs, the activity demonstrated to the<br />

students, the impact-protecting ability of<br />

these suspensions. The most convincing<br />

step was that the egg suspended in the corn<br />

starch slurry did not break even after being<br />

dropped from first floor to the ground. The<br />

teachers and students, both were equally<br />

excited to do the activity.<br />

As evident from several<br />

commercial products mentioned earlier<br />

in this article, human life is positively<br />

impacted because of biotechnology and<br />

nanobiotechnology. Moreover, these<br />

are perfect examples of STEM field!<br />

Biotechnology program at Harrisburg<br />

University has been championing these<br />

educational paths through its degree<br />

programs, summer courses, and its efforts<br />

through Capital Area Biotechnology<br />

Partnership, CABP (http://harrisburgu.<br />

edu/the-capital-area-biotechnologypartnership-supporting-central-pasinnovation-economy/).<br />

CABP offers a<br />

wide range of activities for teachers as<br />

well as students to push Biotechnology<br />

education in the K-16 space. There is no<br />

fee for joining, so if interested in being<br />

a member, reach out via email to CABP<br />

Director at lpattarkine@harrisburgu.edu.<br />

26 www.the-intellectual-magazine.com


STEM 2018 | Special Edition<br />

Digital<br />

Domestic<br />

Violence<br />

J.D. Mosley-Matchett<br />

It is undeniable that we live<br />

in an age of technological<br />

marvels. We can now<br />

wear three times more<br />

computing power on our<br />

wrists than the world’s fastest<br />

supercomputer could muster<br />

back in 1985.<br />

www.the-intellectual-magazine.com<br />

Thanks to the Internet, all kinds of household gadgets are becoming “smarter” as we<br />

turn on lights, make coffee, and control the ambient temperature with a simple voice<br />

request. Our doorbell can show us who is on our front porch and facilitate a 2-way<br />

conversation, even if we are physically located on the other side of the world. We<br />

speak a few words and the latest fashion or breaking news or a piping hot meal is promptly<br />

delivered to us.<br />

It’s called the “Internet of Things” (often written as “IoT”). The technological marvels<br />

these communication and processing tools make possible are proliferating exponentially and<br />

entering every facet of modern life. Yesteryear’s science-fiction concepts have now become<br />

rather ordinary and commonplace.<br />

As technology relentlessly spawns a perpetual stream of “intelligent” devices,<br />

organizations that fight domestic violence are issuing warnings that our household helpers can<br />

all too easily be used to torment us. Or, as Women’s Aid (UK) notes, “The Internet provides<br />

perpetrators of domestic abuse many ways to control, threaten, and intimidate their victims.”<br />

All too often, one domestic partner is the “tech savvy” one who installs the<br />

latest digital wonders—perhaps without the other partner even being aware of it. Many<br />

of these gadgets can be controlled via the Internet from virtually any location, and as<br />

such, a culprit can create terrifying situations such as causing the television to blare in<br />

the middle of the night, or the doorbell to ring incessantly, or the heating/cooling unit<br />

to create intolerable temperatures. The New York Times has described instances where<br />

victims of such abuse believed they were going insane, and some had actually been placed on<br />

psychiatric holds to evaluate their mental states.<br />

As Times reporter Nellie Bowles wrote, “Abusers — using apps on their smartphones,<br />

which are connected to the Internet-enabled devices — would remotely control everyday<br />

objects in the home, sometimes to watch and listen, other times to scare or show power.<br />

Even after a partner had left the home, the devices often stayed and continued to be used to<br />

intimidate and confuse.”<br />

Perpetrators are using smart phone apps and home security devices to stalk and spy<br />

on their victims. IoT-based financial abuse can drain online bank accounts, max-out credit<br />

cards, and generate new online debts. Even worse, reports are surfacing of adult children using<br />

these tactics to take advantage of their elderly parents.<br />

Unfortunately, legal remedies are almost non-existent for some of these<br />

21st century tools of domestic violence. Adjusting a “smart” thermostat or turning<br />

on an Internet-enabled television is not normally considered legally punishable.<br />

Even when a restraining order is issued by a court, the provisions are ordinarily<br />

associated with preventing physical contact--which is not at all necessary for creating digital<br />

havoc in a home.<br />

So why don’t these victims simply unplug the equipment that seems to have<br />

run amok? Unfortunately, removing or<br />

disconnecting the offending devices can<br />

escalate the problem, driving the aggressor to<br />

physical violence when the online connection is<br />

severed. And the social isolation created by shutting<br />

down the household’s Internet access can further<br />

isolate people who already feel alone and desperate.<br />

To address this mounting domestic violence<br />

challenge, researchers at University College London<br />

have launched a “Gender and Internet of Things”<br />

study to identify the functions of common devices<br />

used in domestic violence situations. An online<br />

search engine called Shodan (www.Shodan.io) has<br />

been specially developed to help persons determine<br />

which of their devices are connected to the Internet<br />

and locate whomever may be using them.<br />

In addition, a number of organizations that<br />

address domestic violence issues have websites and<br />

reference materials that advocate cybersecurity and offer<br />

helpful advice:<br />

HACK BLOSSOM<br />

https://hackblossom.org/domesticviolence/#threats<br />

Offers defense strategies for<br />

persons experiencing online<br />

threats.<br />

PATHWAYS TO SAFETY<br />

https://pathwaystosafety.org/<br />

Aims to empower American<br />

victims of interpersonal and<br />

gender-based violence while in a<br />

foreign country.<br />

MENS ADVICE LINE<br />

http://www.mensadviceline.org.uk/<br />

Provides advice and support for<br />

the 1-in-4 men who experience<br />

domestic violence and abuse.<br />

27


STEM 2018 | Special Edition<br />

STEM Education:<br />

It’s About Student Voice and Choice<br />

Ray Ann Havasy<br />

Challenging students to get involved and enthused about STEM<br />

begins with HOW we present the material to them. At the STEM<br />

Carib conference the educators realized that the excitement about<br />

STEM can be dampened when it is presented by lecture or prescribed<br />

inquiry. In our sessions we used simple materials such as Play Dough to challenge the<br />

educators to create something useful, to engineer something useful. They had the option<br />

of what to create. By not instructing them, but by guiding them, they saw how their own<br />

ingenuity and creativity played a part in their STEM design.<br />

It is imperative that we give students the opportunity to use their own thoughts and<br />

ideas in their pursuit of knowledge. Research clearly shows that when we, as educators,<br />

allow students to chart their course in learning their achievement soars. As the educators<br />

were challenged to use construction paper to build a flying device that would fly straight<br />

for at least 6 feet, they saw how it took much more engagement on their part to meet<br />

the challenge than if they were given step by step instructions as far as what to build.<br />

Giving students a “voice and choice” as to what happens in class helps them to be<br />

fully engaged. When students are fully engaged learning happens. As educators<br />

we need, whenever possible, to design our lessons so that the students can be<br />

involved in HOW they learn.<br />

28 www.the-intellectual-magazine.com


STEM 2018 | Special Edition<br />

Sun:<br />

Dangerous Our Still Effects of large Solar Flares on the Earth<br />

Edward F. Guinan<br />

Solar flares are brief powerful eruptions<br />

of intense high-energy (x-rays and<br />

ultraviolet) radiation and plasma from<br />

the Sun’s magnetic surface. Solar flares<br />

are associated with sunspots & frequently<br />

cause electromagnetic disturbances on the<br />

Earth with radio communications and power<br />

line transmissions. Some large solar flares have<br />

energies up to 10 +32 ergs—equivalent to ~1<br />

billion megaton nuclear bombs. Several flares<br />

of these strengths have been observed from the<br />

Sun over the 50-yrs.<br />

Data from the Villanova University<br />

“Sun in Time” program were used by Guinan<br />

and colleagues to study the flare properties of<br />

the solar-type stars and the Sun from youth<br />

to old age (100 Myr - 8 Byr). These studies<br />

are based on ground-based observations as<br />

well as a wealth of data from NASA’s Kepler<br />

Space Telescope. The ultra-high precision light<br />

measurements available from the Kepler made<br />

it possible to study starspots, flare properties,<br />

and rotations of thousands of solar-type stars.<br />

Using Age-Rotation relations (solar-type stars<br />

spin-down over time), the team determined the<br />

correlation of flares properties of solar-type star<br />

(and thus the Sun) over a wide range of ages.<br />

Superflares (defined as E > 10 +33 ergs - known as X100 flares) were discovered on hundreds of stars mostly younger than<br />

Sun (age = 4.6 Byr). The young solar analogs showed frequent and powerful flares –some were classified at mega-flares with E > 10 +35 ergs.<br />

These huge “monster” flares and accompanied plasma explosions may have played major roles in the evolution of the early atmospheres<br />

of Earth and other terrestrial planets. Interestingly they find that even stars as old as our Sun occasionally produce superflares.<br />

The takeaway from this work is that our Sun, although much less active than it was when it was younger, is still a dangerous star<br />

capable of producing large flares and even rarer superflares with E> 10 +33 erg. These powerful flares could produce catastrophic damage to<br />

our modern technology, including communication & navigation space-borne systems and posing serious dangers to astronauts in space.<br />

Large level flares (e.g. 1859 Carrington Event) are estimated to occur about ~80-100 yrs while superflares such as the medieval 774/75 CE<br />

event, occur about once per ~300-500 yrs. while ultra-dangerous mega-flares may about once per 18,000 yrs.<br />

The paper is dedicated to the late Dr. William (Bill) Hrudey who established a solar observatory on the UCCI campus on Grand<br />

Cayman. This research is supported by grants from NASA.<br />

In June 2013, a joint venture from researchers at Lloyd's of London and Atmospheric and Environmental Research (AER)<br />

in the United States used data from the Carrington Event to estimate the current cost of a similar event to the US alone<br />

at $0.6–2.6 trillion.[2] From Solar Storm Risk to the North American Electric Grid Lloyd's 2013.<br />

www.the-intellectual-magazine.com<br />

29


Other Adventures In<br />

STEM Carib...<br />

Chemistry of Paint<br />

Catherine Santai<br />

Trolleyology<br />

Rachel Fogle<br />

Human-Centred Research and Technology<br />

Design<br />

Tamara Peyton<br />

Big Wonders of Nano<br />

Mrunalini Pattarkine<br />

About UCCI<br />

The University College of the Cayman Islands has never let size stand in the way of<br />

achievement – and this "Little University that Could" has been making giant strides for<br />

education and community development not only in the Islands, but in the region.<br />

Since its inception as a Community College in 1975, UCCI transformed from being a<br />

part-time establishment to a full-fledged tertiary level institution offering a plethora<br />

of programmes in the Associate, Bachelor and Master's levels as well as Professional<br />

Education and Workforce Training.<br />

At the forefront of the entire operation is its world-class faculty, members of which<br />

possess either Master's and Doctorate degrees. Drawing from their vast classroom and<br />

real-world experiences, they provide global and personalised instruction to over 1,000<br />

students.<br />

In recent years, UCCI has become the institution of choice for many Caymanians and<br />

expatriates alike, as they are able to experience the demands of a University environment<br />

right on their doorstep. Through the delivery of quality programmes, students are<br />

equipped with knowledge and skills that meet the needs of local and international<br />

employers. UCCI also strives to be on the cutting edge of technology by promoting<br />

STEM (Science,Technology, Engineering and Mathematics) initiatives and through the<br />

establishment of its very own observatory.<br />

As an important socio-cultural landmark, the University College stays true to its<br />

commitment of making valuable contributions towards nation building. Through its<br />

series of regional conferences, UCCI has brought thinkers and influencers from various<br />

fields of expertise, discussing some of the most pressing issues of our time.<br />

Adapted from http://www.ucci.edu.ky/about/index.shtml<br />

Advanced Manufacturing and Gainful<br />

Employment<br />

Charles Shearrow<br />

Chemistry Magic<br />

Catherine Santai<br />

Frenemy Networks<br />

Terrill Frantz<br />

Our Soil, Ourselves: The connection<br />

between our health and the health of the<br />

soil<br />

Daphne Miller<br />

Fashion Tech<br />

Lisa Morales-Hellebo<br />

Can Wildlife Sense a Natural Disaster?<br />

Christine Proctor<br />

Marine Biology<br />

Katie Correia<br />

Inside the Jaws: Mangrove Myths and<br />

Legends<br />

Martin Keeley<br />

STEM Programs and Advanced<br />

Manufacturing<br />

Chip Shearrow<br />

Lionfish: A Criminal Fish Investigation<br />

Katie Correia<br />

Design Thinking Methods and Processes as<br />

Drivers of Innovation<br />

Tamara Peyton<br />

Start-up Ecosystems<br />

Lisa Morales-Hellebo<br />

30 www.the-intellectual-magazine.com


The STEM Carib 2018 organisers gratefully acknowledge<br />

the generous support of our sponsors:<br />

MAJOR SPONSORS<br />

PLATINUM SPONSORS<br />

GOLD SPONSORS<br />

SILVER SPONSOR FRIENDS OF STEM CARIB 2018<br />

Learn more about our partner oganizations in the SPONSORS section of our website:<br />

www.stem.ky


STEM 2018 | Special Edition<br />

Meet The<br />

Intellectuals!<br />

ADAM WEINER<br />

weinera@bishops.com<br />

Adam Weiner is a high school physics teacher, and author of the book “Don’t Try This at Home! The Physics of<br />

Hollywood Movies”. As a teacher he enjoys incorporating movies in the classroom as a way to illustrate physics<br />

concepts. In addition to teaching, Adam has written for PopSci magazine and has given public presentations on “movie<br />

physics” at colleges, museums, the USA Science and Engineering Festival, the Academy of Motion Pictures, and<br />

Comic-Con among other venues. He is extremely fond of Star Trek (the original series) and Mr. Spock is his favorite<br />

character.<br />

Albert Sarvis<br />

Assistant Professor<br />

Geospatial Technology<br />

Harrisburg University<br />

asarvis@harrisburgu.edu<br />

Albert Sarvis received his B.A. in Geo-environmental Studies from Shippensburg University in 1991 and M.A. in<br />

Geography at Ohio University in 1994. Mr. Sarvis began his teaching experience as a Graduate Assistant at OU<br />

teaching Physical Geography and Geospatial Technology labs. Mr. Sarvis has also taught graduate level Geospatial<br />

Technology classes at Indiana University's School of Public and Environmental Affairs and undergraduate classes at<br />

Harrisburg Area Community College. In 2005 he began working with Harrisburg University as a corporate faculty<br />

member helping to develop and teach the Geospatial Technology program before joining the HU staff full time in<br />

January 2011.<br />

Prior to becoming a full time professor Mr. Sarvis worked for 16 years in the Geospatial Technology consulting industry<br />

spending 11 of those years as a project manager. He obtained his Project Management Professional certification in<br />

2005 and GIS Professional certification in 2007. Mr. Sarvis has presented Geospatial Technology and Project Management at numerous conferences<br />

and workshops during his consulting career and maintains a wide range of Geospatial Industry contacts to benefit both the Geospatial Technology and<br />

Project Management program content and future student careers.<br />

Antoinette Gayle<br />

Senior Lecturer<br />

University College of the Cayman Islands<br />

agayle@ucci.edu.ky<br />

Antoinette Gayle joined the UCCI team in August 2014 as lecturer of all areas of chemistry as well as biochemistry.<br />

Prior to joining the UCCI, she worked in Jamaica as a technical officer and quality systems consultant. Mrs. Gayle has<br />

worked in Education since 2004 and has taught chemistry at various levels at the University of the West Indies, Mona<br />

(UWI) and at St. Andrew College.<br />

Mrs. Gayle believes in the value of a good education and encourages her students to be good problem solvers and<br />

critical thinkers. She holds an MPhil in Chemistry from the UWI and a certificate in teaching from John’s Hopkins<br />

University.<br />

32 www.the-intellectual-magazine.com


Charles Palmer<br />

Professor<br />

Harrisburg University<br />

STEM 2018 | Special Edition<br />

As the Executive Director of the Center for Advanced Entertainment and Learning Technologies, Charles Palmer<br />

oversees the design and development of ventures in new and emerging technologies, serves as the Program Lead for<br />

the undergraduate Interactive Media program, is an adviser to the Learning Technology Masters of Science program,<br />

and coordinates the High School Gaming Academy. As an instructor, Professor Palmer mentors students on research<br />

projects in the fields of augmented and virtual reality, mobile computing, web application development, video production,<br />

desktop manufacturing (3d printing), motion graphics and interactive games.<br />

As a technologist, author and international speaker, Professor Palmer lectures on virtual reality, 3d printing, gamification,<br />

interactive storytelling, and simulations linking learning and research to practical outcomes.<br />

Edward Guinan<br />

Professor<br />

Astrophysics and Planetary Science<br />

Villanova University<br />

edward.guinan@villanova.edu<br />

Edward Guinan, a Professor of Astrophysics and Planetary Science at Villanova University, is a pioneer in astronomy<br />

and space science research that studies our Sun, stars, and planets inside and outside our solar system, as well<br />

as the search for life on these planets. His research efforts are primarily aimed at studying the effects that X-ray<br />

& UV radiation from host stars have on their planets and to determine if these exoplanets are potentially habitable.<br />

Recently Guinan worked with a European team to study the potential habitability of the nearest Earth-size exoplanet,<br />

Proxima b and found that this planet is temperate and has the potential to support life. During 2017 he established an<br />

astrobiology-based program “Mars Gardens: The Red Thumbs Project” testing growing vegetables under Mars reduced<br />

ambient light and in Martian regolith simulant. He has published over 700 papers and edited four books. At Villanova,<br />

he teaches Astrobiology, Meteorology, Paleoclimatology and Cosmology. His research has been supported primarily by<br />

grants from the National Aeronautics and Space Administration (NASA) and the National Science Foundation.<br />

He has been active in establishing and promoting international astronomy education, research and outreach programs in developing countries sponsored<br />

by the International Astronomical Union (IAU). Since 2012 he has been the Chair of the Astronomy for Universities and Research Program at the IAU<br />

Office of Astronomy for Development (IAU/OAD). He participates in CARIB-STEM programs held at the University College of the Cayman Islands (UCCI)<br />

since 2012.<br />

• Principles of marketing<br />

• Buyer behavior<br />

• Marketing policy<br />

• Electronic commerce<br />

• Communication law<br />

• Public relations<br />

• Advertising management<br />

• Marketing research<br />

• Internet marketing strategy<br />

• Business communication skills<br />

• News reporting<br />

J. D. Mosley-Matchett<br />

Associate Professor<br />

University College of the Cayman Islands<br />

jmosley-matchett@ucci.edu.ky<br />

Dr. Mosley-Matchett joined the University College of the Cayman Islands faculty in August 2009, but she is a seasoned<br />

educator with ten years of successful teaching experience at both the graduate and undergraduate levels.<br />

Her educational credentials include an MBA (December 1986) and a PhD in Business Administration (May 1997) from<br />

the University of Texas at Arlington; a Juris Doctor (law degree) from Southern Methodist University in Dallas, Texas<br />

(August 1984); and a Bachelor of Science in Electrical Engineering Technology from Old Dominion University in Norfolk,<br />

Virginia (May 1980).<br />

As a professor at the University of Texas at Arlington, Dr. Mosley-Matchett taught the following classes in the College<br />

of Business Administration and the School of Fine Arts:<br />

Locally, she has served as the Managing Director of a Caymanian company called Words & Images and as the Marketing Executive for the Cayman<br />

Islands Tourism Attraction Board. In the U.S., she was the President of Sterling Impression, Inc. for more than 20 years. Her numerous clients have<br />

included the Cayman Islands Portfolio of the Civil Service, the Caymanian Bar Association, IBM, Texas Instruments, and J.C. Penney.<br />

www.the-intellectual-magazine.com<br />

33


STEM 2018 | Special Edition<br />

Mrunalini (Leena) Pattarkine<br />

Professor<br />

Biotechnology and Nanobiotechnology<br />

Harrisburg University<br />

lpattarkine@harrisburgu.edu<br />

Mrunalini Pattarkine, PhD, Professor in Biotechnology heads the BTEC program at Harrisburg University of Science<br />

and Technology in Harrisburg PA. Prof Pattarkine has a PhD in Biochemistry from IIT Powai, and has over 25 years<br />

of research experience. In addition to being the program director, she is also the lead faculty for Nanobiotechnology<br />

initiative within the Biotechnology program at the university and is currently directing sponsored research for private<br />

industries. In addition to teaching Biotechnology/Nanobiotechnology courses, Prof Pattarkine also serves as a Director of<br />

Capital Area Biotechnology Partnership (CABP), a Workforce Leadership Grant in Biotechnology though funding from PA<br />

Department of Community and Economic Development (DCED, a $700,000/- grant). Prof Pattarkine has active research<br />

projects in areas such as biosensor development, paper-based analytical devices, antimicrobial properties of plant<br />

biomaterials, and hydrogels for regenerative medicine. Prof Pattarkine has several publications and two book chapters to<br />

her credit. Under her instruction, the university offers several summer courses for high-school students. Prof Pattarkine<br />

has conducted numerous workshops at national and international events, for educators and administrators and is considered an expert in the field by<br />

state administrators.<br />

Rachel Fogle<br />

Assistant Professor of Biological Sciences<br />

Integrative Sciences<br />

Harrisburg University<br />

rfogle@harrisburgu.edu<br />

As a broadly trained physiologist, my research interests are widespread. I am interested in biological systems under<br />

normal and pathological states, proteomics, and bioinformatics. My dissertation project involved the use of proteomics<br />

to detect sex-dependent differences in myocardial protein content following chronic alcohol abuse in a rat model.<br />

Specifically, I utilized chemical labeling technology (iTRAQ) to allow direct comparison between study groups. In<br />

conjunction with the proteomic studies, I utilized echocardiography to monitor changes in cardiac structure and function<br />

with increasing levels of alcohol consumption. This approach provided an excellent platform for correlating alterations in<br />

whole organ structure and function with alcohol-induced sub-cellular events.<br />

One of my specific interests includes the field of quantitative proteomics and bioinformatics. Managing large datasets<br />

generated from proteome-based experiments has led to an appreciation for statistical tools that allow easier data<br />

analysis. As part of my graduate research, I developed a new statistical model using statistical software analysis packages, such as STATA and R, to<br />

allow combination of multiple datasets with related research hypotheses, thereby increasing the sample size for statistical analysis.<br />

More recently, in addition to statistical modeling, I have broadened by research interests to include education research. Specifically, the implementation<br />

and validation of innovative team-based learning curriculum for responsible conduct of research (RCR). It is hypothesized that ethical decision-making<br />

abilities (both short-term and long-term) can be increased through the use of a team-based, interactive RCR curriculum that is malleable to the<br />

instructor, biomedical discipline, and targeted audience.<br />

Ray Ann Havasy<br />

Center for Science Teaching and Learning<br />

Executive Director<br />

rayann@cstl.org<br />

Dr. Havasy has been a scientist, educator, and not-for-profit business executive for over 20 years. She received her<br />

Bachelor’s Degrees in zoology and education from Connecticut College and her Masters and Doctorate Degrees in<br />

biology and education from Columbia University. She has been a science teacher, a district wide science coordinator,<br />

and a middle school principal. Her educational research focuses on inquiry and informal science education and their<br />

connections to student achievement and motivation.<br />

Dr. Havasy has published several articles on science education and was recently recognized for her work by becoming<br />

the Society of Professional Engineer’s Educator of the Year. She has recently made keynote presentations at Columbia<br />

University and Barnard concerning STEM education and has been awarded a major research grant to study girls and<br />

STEM learning. In 2010 Dr. Havasy was named one of New York’s 50 Most Influential Women.<br />

34 www.the-intellectual-magazine.com


Terrill Frantz<br />

Professor of eBusiness and Cybersecurity<br />

Harrisburg University<br />

terrill@org-sim.com<br />

STEM 2018 | Special Edition<br />

Professor Frantz began writing computer software in 1974, as a teenager. Within a year, he was challenging a<br />

computer’s security at a local university. Gradually, he built a consulting business developing for and supporting dozens<br />

of business clients. After completing college, he coded his way to working on Wall Street for some of the largest<br />

global investment banks in several countries. While in industry, he managed several, broader information-technology<br />

teams and development projects.<br />

His work experience spans computers from micros to mainframes, jobs from support to development, to management,<br />

and includes programming using scores of languages. He started developing for the Internet in 1992. Since 2000,<br />

Dr. Frantz has also developed an expertise in Organization Change, Computational Organization Theory, Post-merger<br />

(organizational) Integration, and business involving China. He has earned separate doctorate degrees in Organization<br />

Change, and in Computer Science–from two leading universities in the USA. Dr. Frantz reoriented his professional career<br />

from industry to academics beginning in 2001 and has published numerous journal articles and book chapters since.<br />

Presently, he is Co-chief Editor of the journal Computational and Mathematical Organization Theory (CMOT).<br />

Over the past decade, he has taught technology- and business-related courses in universities in Europe and Asia, as well as the USA. Dr. Frantz’s<br />

passionate desire is to mentor those students who oppose being slave to the technology and instead seek to become a master over that technology….<br />

nerds, geeks, or normal people, alike.<br />

For further information, see http://scholar.terrillfrantz.com<br />

Von Ryan G. Abrantes<br />

Von Ryan G. Abrantes graduated from the University of the Philippines with a degree in Secondary Education major<br />

in Physics and Minor in Mathematics. He has taught in both the primary, secondary and college level and has done<br />

coaching for pre-service and in-service teachers in the Philippines. Currently, he teaches IGCSE and A’Levels Physics<br />

in the Cayman Islands where he also leads the Science Club and STEM Society, coaches the underwater robotics<br />

team, and advises students on their research projects for Science fairs in the school he is currently working in. Von<br />

is the Technical Mentor of the Cayman Islands National Robotics Team. He is also a member of the Cayman Islands<br />

National Choir and plays the piano for Eucharistic celebrations on the island. He loves reading comics, watching sci-fi<br />

and fantasy movies and drawing.<br />

Dr. William P. Schonberg<br />

Professor<br />

Civil Engineering Department<br />

Missouri University of Science and Technology<br />

wschon@mst.edu<br />

Dr. William P. Schonberg is a Professor of Engineering at the Missouri University of Science and Technology. He is a<br />

registered professional engineer in the States of Missouri and Alabama, and has over 30 years teaching and research<br />

experience in the areas of shock physics, spacecraft protection, hypervelocity impact, and penetration mechanics. Dr.<br />

Schonberg received his BSCE from Princeton University in 1981, and his MS and PhD degrees from Northwestern<br />

University in 1983 and 1986, respectively.<br />

Laboratories, to name a few.<br />

The results of his research have been applied to a wide variety of engineering problems, including the development<br />

of orbital debris protection systems for spacecraft in low earth orbit, kinetic energy weapons, the collapse of buildings<br />

under explosive loads, insensitive munitions, and aging aircraft. Dr. Schonberg’s scholarly activities have been supported<br />

by contract and grants from a variety of federal, state, and private funding agencies, including NASA, the National<br />

Science Foundation, the Air Force Office of Scientific Research, The Army Research Office, and Sandia National<br />

At Missouri S&T, Dr. Schonberg continues to teach a variety of graduate and undergraduate courses in civil, mechanical, and aerospace engineering.<br />

In 2014 he was a Visiting Professor at the University College of the Cayman Islands where he taught Engineering Law and Ethics as part of that<br />

university’s new engineering program.<br />

Dr. Schonberg is a Fellow of the American Society of Civil Engineers and the American Society of Mechanical Engineers; most recently he was<br />

named a Distinguished Scientist the Hypervelocity Impact Society in recognition of his many scholarly accomplishments as well as his dedication to<br />

the Society, its programs, and its student members. In 2007 Dr. Schonberg received a Friedrich Wilhelm Bessel Research Award from the Humboldt<br />

Foundation in Germany. This award enabled him to spend 7 months at the Fraunhofer Ernst Mach Institute in Freiburg, Germany working on advanced<br />

protection systems for satellites and developing preliminary designs for safe lunar habitats using in-situ materials for protection against meteoroid<br />

impacts.<br />

www.the-intellectual-magazine.com<br />

35

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