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The Power of Grants in Student Development

By Camille Banson, VI Form and Ryan Lee, VI Form

Editor’s Note: The Matthews Educational Fund provides grants to students of any form who are good citizens and solid students. Grants are made for special needs such as tutoring assistance, special instruction, seminars, academic experiences of a national or international nature, and personal growth and advancement opportunities. ​Awards are based on merit and need as determined by a faculty committee. Last year, Camille Banson and Ryan Lee received the Matthews Fund Award to pursue their educational endeavor. Here is an overview of their experience.

Camille Banson:

Over the summer, I participated in a Boston University Summer Program. It ran for two weeks (more…)

Biology Research Paper: Tuskegee Syphilis Study

By Conor Brockway, V Form and Damion Nsiah, V Form

Biology Research Paper: Tuskegee Syphilis Study

The first half of the 20th century was plagued by actions that are deemed unethical and frightening in today’s society. These actions included the spreading of the Jim Crow Laws, the rising of the KKK, and the speculation of the stock market, resulting in the Great Depression. Many Americans now know of these actions and condemn them. However, poor medical practices during this time period were often overlooked. Many doctors, without advanced equipment or proper safety guidelines, would perform procedures on living bodies to see what happened to them. These experiments were often completed without informed consent. One of the most unethical studies that came from the 1900’s was the Tuskegee Syphilis Study. (more…)

The Reality of Health Care (or Lack of It) for America’s Poorest

By Brittany Bing, VI Form

The Reality of Health Care (or Lack of It) for America’s Poorest

The reality of health care in America is rather grim. Compared to our foreign counterparts and prior to the Affordable Care Act, America was one of the few developed countries that lacked a form of universal health care. In Advanced Biology this year, we read Rebecca Skloot’s The Immortal Life of Henrietta Lacks, which showed the complexities between biomedical ethics, race, and access to health care. Henrietta Lacks was a black woman who developed advanced cervical cancer and died in 1951. What followed was one of the biggest injustices in medical (more…)

III Form Physics: First Engineering Design Challenge

By Lindsey Dumond, III Form

 III Form Physics: First Engineering Design Challenge

Units 1, 2, and 3 all focused on the same design challenge, which was to create an object with the highest average velocity over two meters. The object also had to be self-propelled and could not leave contact with the track at any time, or it would be disqualified. At the end of unit one, we chose several materials that we thought would be most useful in creating an object that could complete the challenge. We created a first design based on what we knew about physics at that point. In unit two, we built a model of our first design and tried to make it self-propelled. After facing challenges during this step we redesigned and rebuilt. As we redesigned, we were also learning more about physics and concepts that (more…)

Challenging the World to Decrease Energy Use

By Kristen Upton, V Form, Annette Kang, VI Form, and Kristin Smith, VI Form

Challenging the World to Decrease Energy Use

In our Advanced Environmental Science class, we had the challenge of making a 1-2 minute proposal video that would invite and encourage people around the world to find a solution to our essential question: How much of our energy use is actually necessary? In our video, we challenged our viewers to decrease their unnecessary energy use, with our goal being to prompt conversations and spread awareness of superfluous energy consumption. As we try to accomplish this feat at our school, we hope that this video will spur inspiration in others to take on the same challenge.

Team Energy’s Video:  Click Here

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TASP Aims To Solve A St. Mark’s Energy Problem

By Liam Monheim V Form, Erica Christensen VI Form, Sarah Robertson V Form, and Jazzy Randle VI Form

Screen Shot 2014-12-04 at 2.02.48 PMIn Advanced Environmental Science, we have stopped doing modules and problem sets and instead are beginning a project that will take us until the end of February. Our class is split into groups of three and four. The project is to create an Essential Question and a Challenge that we will then address and attempt to solve.

The only specification for our Challenge is that it must relate to energy. In order to help generate ideas for Challenge, we wrote down observations on the campus of St. Mark’s relating to energy. We asked administrators, teachers, and students about their thoughts (more…)

Sharing the Faith: Religion and Science

By Julie Geng, VI Form 

FaithScience_layout_2009_04_13_02_59_47For many, science and religion are mutually exclusive since science — reliant on the scientific method — can find no proof for Deity. Others think that these two forces coexist without influencing each other. As both a passionate young chemist and a faithful Christian, I have reconciled for myself the purported dichotomy between scientific endeavor and religious awe through understanding their shared element of faith. (more…)

Modeling H1N1’s Impact on the United States’ Population

By Lucy Cao, IV Form

HINIThe infectious disease, H1N1, that I have modeled, includes six compartments: susceptible 1 (S1), susceptible 2 (S2), pre-infectious, infectious (I), diagnosed and recovered (R).

Susceptible 1 and susceptible 2 refer to the two groups in the susceptible population: S1 is children and the elderly, while S2 is the rest of the population. Children and the elderly are excluded from the total population and placed in a separate compartment because they are more vulnerable to the H1N1 virus and have a greater chance of getting infected. Thus, the rate from S1 to infectious is bigger than the rate from S2 to infectious. I calculated my rates from the susceptible compartments to the infectious compartment with the formula β*S*I/N, in which β is the rate of transmission, S is the population of susceptible, I is the population of infectious and N is the total (more…)