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November Issue 2023

This month's issue focuses on a variety of topics regarding organic and conventional foods. The issue highlights research on both organic and conventional foods, green zones, and so much more!

This month's issue focuses on a variety of topics regarding organic and conventional foods. The issue highlights research on both organic and conventional foods, green zones, and so much more!

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NutriNews<br />

University of North Florida


TABLE OF CONTENTS<br />

“WEAR GRATITUDE LIKE A CLOAK, AND IT WILL<br />

FEED EVERY CORNER OF YOUR LIFE.”<br />

-RUMI<br />

04.<br />

NUTRITION RESEARCH<br />

History Behind Organic Foods<br />

09.<br />

LUNCHBOX<br />

Baked Pumpkin Oatmeal<br />

10.<br />

MONTHLY HACKS<br />

Organic vs. Nonorganic Products<br />

12.<br />

MYTH BUSTING<br />

Truth Behind Eggs<br />

17.<br />

TOPIC OF THE MONTH<br />

Green Zones and Green Spaces<br />

22.<br />

VITAMINS AND MINERALS<br />

Nutrient Composition of Organic<br />

Foods<br />

NUTRINEWS STAFF<br />

27. Meet the Team


N U T R I T I O N R E S E A R C H<br />

The Brief U.S.<br />

History Behind<br />

Organic Produce<br />

B Y : T A V I A N N A B R O O K S<br />

The organic food industry has been<br />

booming in popularity over the past few<br />

years.1 In 2020, organic sales achieved<br />

over 53 billion dollars in sales.1 Many<br />

consumers gravitate towards organic<br />

food due to health and environmental<br />

reasons.1,2 However, the history behind<br />

organic produce may be unknown to<br />

consumers.<br />

In 1859, the Colorado potato beetle’s first<br />

major outbreak severely damaged<br />

potatoes west of Nebraska.3 Over the<br />

next 15 years, the beetle migrated<br />

eastward of the U.S, damaging east coast<br />

potato crops and then Canada.4<br />

In the 1860s, Paris Green, a combination of<br />

arsenic and copper sulfate, was used as<br />

pest control against the Colorado potato<br />

beetle.3,5 This marked the beginning of<br />

the use of synthetic chemicals as<br />

pesticides.6<br />

4


N U T R I T I O N R E S E A R C H<br />

From 1862 to 1875, the first<br />

American agricultural revolution<br />

instigated the rise of agricultural<br />

legislation,, replacement of the<br />

slave plantation system for<br />

sharecropping in the South, and<br />

use of horses.7,8<br />

In 1862, Abraham Lincoln<br />

established the U.S. Department<br />

of Agriculture to support the 90%<br />

of Americans who were<br />

farmers.7,8 He nicknamed it “the<br />

people’s department.”8<br />

By 1867, Paris Green became<br />

widely used.3,6<br />

In 1873, a German student<br />

invented DDT,3 but its use in<br />

American agriculture was not<br />

seen until decades later.7<br />

In 1874, the availability of barbed<br />

wire to farmers restricted the<br />

grazing of cattle.7<br />

In 1890, the First Federal<br />

C L A U D I A A L V E S<br />

Inspection Meat Act was<br />

passed.7 This law was passed in<br />

response to competition in the<br />

foreign livestock market, where<br />

other countries inspected their<br />

animal products.9 However, the<br />

law only required pork and bacon<br />

to be inspected.9 It was later<br />

amended in 1891 to include all<br />

cattle intended for exportation.9<br />

In the late 1800s, U.S. imperialism<br />

introduced pests.3,5<br />

5<br />

In 1906, the Food and Drug Act<br />

was passed.7 It banned<br />

misbranding and adulteration of<br />

food.10 The Bureau of Chemistry<br />

(replaced later by the Food and<br />

Drug Administration) investigated<br />

deception, sampled food<br />

products, and took legal action<br />

against companies.10<br />

In 1910, the Federal Insecticide Act<br />

(FIA) was passed to ensure<br />

farmers and consumers were<br />

protected from adulterated and<br />

fraudulent pesticides sold by<br />

companies.6<br />

In 1936, the Soil Conservation and<br />

Domestic Allotment Act was<br />

passed, allowing the government<br />

to pay farmers to decrease<br />

production in an effort to<br />

conserve soil, limit erosion,<br />

protect water quality, and other<br />

environmental and public health<br />

reasons.7,11<br />

In 1942, Pyrethrin, a pesticide<br />

typically made from<br />

chrysanthemums, became<br />

unreliable when foreign production<br />

of chrysanthemums fell short.12<br />

In 1943, the U.S. was looking for<br />

other options regarding pesticide<br />

use to help meet food supply<br />

demands.12<br />

In the 1940s, DDT, one of the first<br />

modern pesticides, became widely<br />

used during World War 2.3,5 DDT<br />

was used to lessen insect-borne<br />

human diseases, such as malaria,<br />

and increase insect control among<br />

civilian and military populations.6<br />

Its use was also beneficial during<br />

wartime because it was cheap,<br />

easy to apply, and reliable.5 DDT’s<br />

use became widespread in the U.S.<br />

and other countries, resulting in<br />

pesticide-resistance among many<br />

insect species.13


N U T R I T I O N R E S E A R C H<br />

She highlighted pesticide residue found in food,<br />

pests growing resistance, and adverse<br />

agroecological affects.3 The book gained<br />

nationwide popularity, increasing advocacy for<br />

stricter environmental regulations and the<br />

banning of pesticides.5<br />

In 1969, the National Environmental Policy Act<br />

(NEPA) was passed.16 The law forced federal<br />

agencies to consider the environmental impact of<br />

their actions and decisions.16<br />

Add a 1945 to 1970 saw the second American<br />

agricultural revolution, introducing increased<br />

yields and “more specialized, capital-intensive<br />

farms.”14<br />

In 1947, the FIA was amended and renamed as<br />

the Federal Insecticide, Fungicide, and<br />

Rodenticide Act (FIFRA).6 FIFRA required all<br />

pesticides in the U.S. to be registered by the EPA,<br />

and it required that proof be provided that the<br />

pesticide “will not generally cause unreasonable<br />

adverse effects on the environment.”15<br />

In the 1950s, insect resistance against DDT began<br />

to appear.5<br />

In 1962, Rachel Carson’s, a marine biologist and<br />

conservationist, book “Silent Springs” discussed<br />

the ecological risks associated with pesticides.3<br />

She highlighted pesticide residue found in food,<br />

pests growing resistance, and adverse<br />

agroecological affects.3 The book gained<br />

nationwide popularity, increasing advocacy for<br />

stricter environmental regulations and the<br />

banning of pesticides.5<br />

In 1970, the Environmental Protection Agency was<br />

established to provide a standardized approach<br />

towards environmental regulations.3,7<br />

In 1972, the EPA issued a discontinuation of DDT<br />

because of countless evidence surrounding the<br />

pesticide’s negative impacts on the environment<br />

and public health.13 Although banned in the U.S,<br />

concentrations of DDT in animals and the<br />

environment still remain.13<br />

In the 1980s, biotechnology became a technique<br />

to make production of livestock and crops<br />

cheaper and easier to manage.7,17 An example<br />

of biotechnology use is genetically modifying a<br />

crop to better tolerate an insecticide. 17<br />

In the late 1980s, the organic industry petitioned<br />

Congress to define “organic” in order to<br />

standardize production and certification.18<br />

In 1962, Rachel Carson’s, a marine biologist and<br />

conservationist, book “Silent Springs” discussed<br />

the ecological risks associated with pesticides.3<br />

6


N U T R I T I O N R E S E A R C H<br />

References<br />

1. Strong growth in organic market slowed in 2021. USDA Economic Reserve Service. February 13, <strong>2023</strong>. Accessed September 30, <strong>2023</strong>. https://www.ers.usda.gov/data-products/chart-gallery/gallery/chartdetail/?chartId=105850.<br />

2. Green D. The rise of the organic food market. CNBC. September 22, 2021. Accessed September 30, <strong>2023</strong>. https://www.cnbc.com/2021/09/22/organic-food-sales-surged-in-2020-higher-demand-andcheaper-costs.html.<br />

3. Core topic briefs: History of pesticides. Pennsylvania State Extension. 2019. Accessed September 30, <strong>2023</strong>. https://extension.psu.edu/core-topic-briefs-history-of-pesticides.<br />

4. Alyokhin A. Colorado Potato Beetle Management on Potatoes: Current Challenges and Future Prospects. 2009. Available at: http://www.potatobeetle.org/Alyokhin_CPB_Review_reprint.pdf. Accessed<br />

September 30, <strong>2023</strong>.<br />

5. The evolution of chemical pesticides. Fisher Scientific. 2016. Accessed September 30, <strong>2023</strong>. https://www.fishersci.com/us/en/scientific-products/publications/lab-reporter/2016/issue-4/the-evolutionchemical-pesticides.html.<br />

6. Abmayr SM, Adams ME, Andaloro JT, Andersen SO, Andrew DJ. Paris Green. ScienceDirect. 2005. Accessed September 30, <strong>2023</strong>. https://www.sciencedirect.com/topics/agricultural-and-biologicalsciences/paris-green.<br />

7. A Condensed History of American Agriculture 1776–1999. USDA; 2000. Available at: https://www.usda.gov/sites/default/files/documents/history-american-agriculture.pdf. Accessed September 30, <strong>2023</strong>.<br />

8. Farming in the U.S. PBS. Accessed September 30, <strong>2023</strong>. https://www.pbs.org/wgbh/americanexperience/features/troublesome-farming-us/.<br />

9. Our history. USDA Food Safety and Inspection Service. 2013. Accessed September 30, <strong>2023</strong>. https://www.fsis.usda.gov/about-fsis/history#:~:text=On%20August%2030%2C%201890%2C%20President.<br />

10. Swann J. How Chemists Pushed for Consumer Protection: The Food and Drugs Act of 1906. Chemical Heritage; 2006;24(2):6-11. Available at: https://www.fda.gov/files/about%20fda/published/How-<br />

Chemists-Pushed-for-Consumer-Protection—The-Food-and-Drugs-Act-of-1906.pdf. Accessed September 30, <strong>2023</strong>.<br />

11. Soil Conservation and Domestic Allotment Act. U.S. Government Publishing; 2019. Available at: https://www.govinfo.gov/content/pkg/COMPS-10311/pdf/COMPS-10311.pdf. Accessed September 30, <strong>2023</strong>.<br />

12. Clarke S, Brown RJE. Pyrethrum and the second world war: Recontextualising DDT in the narrative of wartime insect control. Hist. Sci. Technol. 2022;16(2):89-112. doi:https://doi.org/10.2478/host-2022-0017<br />

13. DDT - A brief history and status. United States Environmental Protection Agency. August 9, 2018. Accessed September 30, <strong>2023</strong>. https://www.epa.gov/ingredients-used-pesticide-products/ddt-brief-historyand-status.<br />

14. California agriculture time line. California Agriculture. 1996;50(6):22-31. Accessed October 1, <strong>2023</strong>. https://calag.ucanr.edu/Archive/?article=ca.v050n06p22.<br />

15. Summary of the Federal Insecticide, Fungicide, and Rodenticide Act. United States Environmental Protection Agency. August 15, 2018. Accessed October 1, <strong>2023</strong>. https://www.epa.gov/lawsregulations/summary-federal-insecticide-fungicide-and-rodenticide-act.<br />

16. National Environmental Policy Act. U.S. General Services Administration. Accessed October 1, <strong>2023</strong>. https://www.gsa.gov/real-estate/gsa-nepaimplementation#:~:text=The%20National%20Environmental%20Policy%20Act.<br />

17. Biotechnology FAQs. USDA. Accessed October 1, <strong>2023</strong>. https://www.usda.gov/topics/biotechnology/biotechnology-frequently-asked-questionsfaqs#:~:text=What%20is%20Agricultural%20Biotechnology%3F.<br />

18. Organic Farming. United States Environmental Protection Agency. October 31, 2018. Accessed October 1, <strong>2023</strong>. https://www.epa.gov/agriculture/organic-farming.<br />

7


The Lunch Box<br />

BAKED<br />

PUMPKIN<br />

OATMEAL<br />

By: Jace Brown<br />

Recipe:<br />

Canned Pumpkin: 1 Cup<br />

Eggs: 2 Whole Eggs<br />

Instant Oats: 2 Cups<br />

Pumpkin Spice: 2 Teaspoons<br />

Olive Oil: Coat Pan<br />

Milk: 1 1/4th Cups<br />

Salt: ½ Teaspoon<br />

Maple Syrup: 1/4th Cup<br />

Baking Powder: 1 ½ Teaspoons<br />

Vanilla Extract: 1 ½ Teaspoons<br />

Dried Cranberries: 1/4th Cup<br />

Organic Substitutes:<br />

Canned Pumpkin: Homemade Pumpkin<br />

Puree<br />

Instant Oats: Organic Steel Cut Oats<br />

Pumpkin Spice: Cinnamon, Nutmeg,<br />

and Ginger<br />

Dried Cranberries: Fresh Cranberries<br />

*All other ingredients have their own<br />

generic organic versions.<br />

Winter nears, but the hearty threshold of<br />

<strong>November</strong> remains. Before fall gives its<br />

marmalade welcome to winter, there’s<br />

still a chance to enhance autumn’s<br />

atmosphere. A central pillar to this<br />

ambiance is the taste and aroma of<br />

pumpkin. Fulfilling both of these criteria is<br />

baked pumpkin oatmeal.<br />

This recipe is simple to make and only<br />

requires a few steps. Not only is it an easy<br />

recipe to bake, but it can be cooked with<br />

all organic ingredients as well.<br />

First, whisk two eggs. Then, mix the eggs<br />

with canned pumpkin, milk, baking<br />

powder, and vanilla extract. Next,<br />

combine oats, pumpkin spice, maple<br />

syrup, dried cranberries, and salt. After<br />

the combining is done, pour the mixture<br />

into a baking pan sprayed with olive oil.<br />

Finally, wait until the edges and top have<br />

just started to brown. When checking the<br />

oatmeal, insert a toothpick into the<br />

center. If it comes out without batter,<br />

then this farewell to fall is ready to eat.<br />

9


M O N T H L Y H A C K S<br />

BUY<br />

ORGANIC<br />

OR NOT?<br />

B y : S o p h i a H a r r i s<br />

Over the years, consuming organic food has become more<br />

popular with the public. If you have an interest in buying<br />

organic food, you may realize that organic food can be<br />

expensive compared to conventionally grown food.<br />

There are two categories, one known as the Clean 15 and the<br />

other the Dirty Dozen.1 The produce that are under the<br />

Clean 15 are the foods that are less contaminated with<br />

pesticides, while the Dirty Dozen are the foods that contain<br />

more pesticide residue than other produce.1 The food part of<br />

the Dirty Dozen would have more priority for organic<br />

produce as they are more contaminated than the Clean 15.2<br />

The list is made by the organization Environmental Working<br />

Group (EWG). They make a new list of produce for each<br />

category each year with the help of the Department of<br />

Agriculture and the Food and Drug Administration. This<br />

year the list of the Dirty Dozen includes: strawberries,<br />

spinach, kale/collard/mustard greens, peaches, pears,<br />

nectarines, apples, grapes, bell/hot peppers, cherries,<br />

blueberries, and green beans.<br />

As for the Clean 15, the produce that has made the cut this<br />

year are: avocados, sweet corn, pineapple, onions, papaya,<br />

sweet peas (frozen), asparagus, honeydew melon, kiwi,<br />

cabbage, mushrooms, mangoes, sweet potatoes, watermelon,<br />

and carrots. To conclude, this year if you are determined to<br />

consume more organic food, I would recommend picking<br />

organic foods that are a part of the Dirty Dozen to reduce<br />

the amount of pesticide residue that you may ingest.<br />

1. Environmental Working Group writer. About EWG’s Shoppers Guide to Pesticides in Produce.<br />

Environmental Working Group website. Accessed October 1, <strong>2023</strong>.<br />

2.Robinson L, Segal J. Organic Foods: What You Need to Know. Help Guide website.<br />

N OAccessed M A DOctober I C<br />

1,<br />

| 2 4<br />

<strong>2023</strong>. 10


DIRTY<br />

DOZEN<br />

CLEAN<br />

15<br />

11


Myth Busting<br />

T H E T R U T H<br />

B E H I N D E G G S<br />

B Y : K A T H E R I N E A L J I A N<br />

Easy<br />

&<br />

Delicious<br />

W h e n y o u l i v e i n a w o r l d w h e r e y o u c a n<br />

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

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

w h i c h i t e m s f i t b o t h y o u r l i f e s t y l e a n d h e a l t h<br />

n e e d s . W h e n i t c o m e s t o e g g s , t h e r e a r e m a n y<br />

t y p e s t o c h o o s e f r o m : C a g e d , E n r i c h e d , C a g e -<br />

f r e e , F r e e - r a n g e , a n d P a s t u r e - r a i s e d e g g s .<br />

Y o u m a y a s k y o u r s e l f , “ W h a t a r e t h e<br />

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

w h a t i s b e s t f o r m e ? ”<br />

12


Eggs are labeled based on how the chickens were<br />

raised. For example, Caged eggs come from<br />

chickens that have spent their life in cages.<br />

Farmers raise the chickens in cages to protect<br />

them from disease and parasites, helping farmers<br />

maintain quality of life and air.1 Although it may<br />

be more efficient to raise chickens in cages, the<br />

chickens are not able to engage in their natural<br />

behaviors such as dust bathing and foraging.1<br />

Caged hens have about 67 square inches to move<br />

around or 0.465 square feet..2<br />

Enriched eggs are very similar to caged eggs<br />

however the hens have “perches and nesting<br />

boxes”.1 Hens that live in enriched cages have a<br />

minimum space of 750 squared cm and live in<br />

close quarters with 10-100 hens.3 To put it into<br />

perspective, 750 squared cm is about 0.80 square<br />

feet, less than the size of a milk crate. For most<br />

hens this is the only space they have throughout<br />

the duration of their egg producing life.<br />

13<br />

Many of the names that eggs are labeled as<br />

can be misleading such as Cage-free eggs;<br />

they are cage free but not free range.<br />

Cage-free chickens are able to roam freely<br />

however they don’t have access to the<br />

outdoors.5 They are confined to a “Hen<br />

house”.6 Hens are able to perform their<br />

natural behaviors such as perching and dust<br />

bathing while in a hen house. In addition, hen<br />

houses are required to give hens at least 1.25<br />

square feet of floor space.7<br />

Eggs labeled as Free-range mean that the<br />

chickens are able to roam freely and have<br />

access to the outdoors.4 Each chicken has<br />

around 1.23 square feet of floor space.6 This<br />

space allows them to better engage in their<br />

natural behavior which is an indicator of a<br />

stress free and comfortable environment.<br />

Free-range chickens are one of the most<br />

humane ways hens are cared for.


Pasture-raised eggs are the most humane way<br />

chickens can be raised. Pasture-raised eggs<br />

are from chickens that are raised in at least<br />

108 square feet and are fed grass and bugs<br />

along with what they can pick out of the<br />

ground, unlike their counterparts that consume<br />

corn or soy-based feed.8 Pasture-raised<br />

chickens have unlimited access to the outside<br />

except for nighttime. These chickens live a<br />

more natural and happier life than most hens.<br />

While Pasture-raised and Free-range chickens<br />

are humane ways to produce eggs, we also<br />

have to weigh the environmental factors as<br />

well. The more space the hens have in their<br />

environment, the more calories they burn, which<br />

means they need to consume more food. Freerange<br />

hens consume a significantly higher<br />

number of calories compared to Caged and<br />

Enriched hens, resulting in a larger carbon<br />

footprint.9<br />

There are many factors to think about when<br />

deciding which types of eggs are right for you.<br />

You may want to consider your lifestyle and<br />

beliefs and weigh those against what is more<br />

accessible or affordable for you. There is no<br />

right or wrong choice when it comes to eggs,<br />

so you may want to consider what is more<br />

meaningful to you. On one hand, you can get<br />

pasture-raised eggs and know the chickens<br />

are living a good life or you could choose<br />

caged eggs and know they don’t have as much<br />

of an environmental impact as pasture-raised<br />

eggs. The choice is yours.<br />

References<br />

1. Brierley Horton. Which Eggs Are Best. Better Homes & Gardens. August 11, 2021. Which Eggs Are Best: Cage-Free, Free-Range, Pasture-Raised, or Organic? (bhg.com).<br />

2. Toby Amidor. What Are Pasture Raised Eggs. Food Network. July 25, 2016.The Difference Between Eggs: Pasture-Raised, Caged, Cage-Free and Free-Range | Food Network Healthy<br />

Eats: Recipes, Ideas, and Food News | Food Network.<br />

3. Space. BC SPCA Speaking For Animals. October 4th, 2022. The truth about enriched cages - BC SPCA<br />

4. Kelli McGrane. What Is Free Range Chicken. HealthLine. February 19, 2020. What Is Free-Range Chicken? (healthline.com)<br />

5. Amanda Barrell, Katherine Marengo. Free-Range Eggs. Medical News Today. December 23, 2019. Eggs: Cage-free vs. pasture vs. free-range medicalnewstoday.com).<br />

6. Molly Watson. “Free Range”. The Spruce Eats. September 13, 2022. What Are Cage-Free Eggs? (thespruceeats.com)<br />

7. Warner Clarke. Cage-Free Chicken 101. Fresh N Lean. June 16, 2020. What Is Cage-Free Chicken, and Should You Buy It? | Fresh N Lean.<br />

8. Toby Amindor. Pasture Raised. US News. July 25, 2016. What’s the Difference Between Pasture-Raised and Free-Range Eggs? (usnews.com).<br />

9. Amanda Barrell, Katherine Marengo. For The Environment. Medical News Today. December 23, 2019. Eggs: Cage-free vs. pasture vs. free-range (medicalnewstoday.com). 14


Nectarines


T H E I M P A C T O F<br />

G R E E N Z O N E S A N D<br />

G R E E N S P A C E S I N<br />

C O M M U N I T I E S<br />

By: Andrea Butler<br />

A green zone is an area built within a<br />

community to improve economic and<br />

environmental health.1 One goal behind<br />

green zones is to shift towards<br />

sustainable practices that will grow a<br />

community from the ground up, while<br />

offering to advance economic<br />

development.2 For example, revitalizing<br />

an area to produce job care and<br />

affordable housing where green zones<br />

are formed to determine architecture<br />

layouts within a city and enhance land<br />

conservation.<br />

In 2016, Los Angeles created a program<br />

called Clean Up Green Up to reduce<br />

health issues that arise from land erosion<br />

and vehicle travel due to being in<br />

proximity of residential homes and<br />

schools. In 2017, the city of Minneapolis<br />

established a Climate Action Plan that<br />

routinely engages in soil clean ups,<br />

forming new ways to improve air quality,<br />

and increasing “green” related<br />

occupations within the green zone and<br />

surrounding area.2 Furthermore, green<br />

zones increase sustainability in urban<br />

areas and have the ability to create<br />

balance in the environment by<br />

developing green businesses and jobs.3<br />

17


Depending on available resources, cities can transform<br />

from consumer to energy producing areas, which can<br />

reduce a city’s input of energy, water, and limit outputs<br />

of waste, gases, and contaminated materials. The trend<br />

to create sustainable urban environments is harmonious<br />

with the evolution of green spaces.3 Green spaces are<br />

any open area covered with natural vegetation such as<br />

forests, parks, wetlands, savannahs, or man-made<br />

environments.4 As further discussed, these spaces have<br />

impacted and demonstrated correlations with food<br />

insecurity, mental health, and providing opportunities<br />

for physical activity to reduce the prevalence of obesity.<br />

To begin with, ecosystem degradation and amplified<br />

reports of poverty, food insecurity, and malnutrition are<br />

some of the top undesirable challenges in the world.5<br />

Despite the growth in ecological diversity, many lowand<br />

middle-income countries have limited opportunity<br />

to obtain affordable and nutritious food. Thus, green<br />

spaces can provide an outlet to advance sustainable<br />

food systems by including more vegetation in the<br />

human diet. To assess the growing knowledge of this<br />

link, Bhebhe et al. conducted a case study report to<br />

investigate the contribution of cultivating green spaces<br />

to reach household food security in Osindisweni and<br />

Maphephetheni, provinces in eThekwini, South Africa.<br />

The two study sites were selected based on having<br />

biologically varied vegetation, level of poverty, and food<br />

insecurity. Questionnaires were sent to each participant<br />

to gather information regarding demographic,<br />

employment, and attitudes on the value of trees, green<br />

spaces, and food and nutrition security. The researchers<br />

utilized the Household Food Insecurity Access Scale<br />

(HFIAS) to assess to what extent a household<br />

experienced food security or insecurity four weeks prior<br />

to the initial phase of the study. It revealed that only<br />

29% of participants were food secure, 36% were mildly<br />

food insecure, 27% were moderately food insecure, and<br />

8% were severely food insecure. Following the HFIAS, an<br />

instrumental variable known as the Poisson model rated<br />

three indices, cultivated and uncultivated trees and<br />

green spaces, and local trees.<br />

The analysis from this model revealed that cultivated<br />

green spaces had a positive correlation with and<br />

significant impact on household food insecurity.<br />

Moreover, the data demonstrated the use of cultivated<br />

green spaces for better food access increased; thus, food<br />

insecurity for these households decreased by 0.097. In<br />

contrast, uncultivated green spaces and local trees had<br />

a negative correlation with household access to food as<br />

food insecurity rose.<br />

18


For these two South African regions specifically, further<br />

research is needed to create effective policies to<br />

improve household access to nutritious foods.5<br />

Ultimately, this is where a merge of green zones and<br />

green spaces can provide an environment to produce<br />

sustainable foods and resources; thus, reducing<br />

pollution and increasing food security.<br />

In terms of mental health, Van den Berg et al.<br />

conducted a review of epidemiological studies to<br />

examine the relationship between green spaces in living<br />

environments and general health.6 The researchers<br />

chose studies that were identified as either crosssectional<br />

or longitudinal and evaluated the quantity or<br />

quality of a green space in the living environment of the<br />

participant or surrounding area.<br />

The participants were adults exposed to a green space<br />

close by or at their home. The researchers evaluated<br />

only one of the following – perceived general health,<br />

mental health, or mortality. Upon synthesizing the<br />

evidence, researchers found a strong positive association<br />

between the quantity of green space in people’s living<br />

environment and perceived mental health and<br />

mortality within the adult population. Furthermore,<br />

there was moderate evidence of a positive association<br />

between perceived general health and the quantity of<br />

green space around the residence. Thus, the results may<br />

suggest that infrastructure of a neighborhood relates to<br />

the resident’s mood and emotions since adults who live<br />

in green neighborhoods reported better mental health<br />

and had a lower risk of dying compared to their<br />

counterparts. Concerning the quality of a green space,<br />

the findings were inconsistent with identifying general<br />

health, mental health, and mortality.6<br />

In addition, Liu et al. formed a quantitative study to<br />

clarify the ecological benefits found in urban green<br />

spaces (UGS) among Beijing residents exposed to<br />

dissimilar living environments and health status.7<br />

Questionnaires were sent to each participant and<br />

contained 32 questions divided into two parts. The first<br />

part gained information about the respondents’<br />

perception of UGS ecological benefits, while the second<br />

part probed key socio-demographic characteristics of<br />

each respondent. This included childhood and current<br />

living environments, self-rated health status, educational<br />

level, and household income. Due to limited resources,<br />

the researchers only conducted their investigation in the<br />

Beijing metropolis; thus, the various types of UGS and<br />

socioeconomic groups still need to be explored. The<br />

results showed that childhood city living generated<br />

better self-rated health status compared to participants<br />

who lived in villages during childhood.<br />

Furthermore, in regard to shaping perceptions of UGS<br />

ecological benefits, participants who lived in the city<br />

and suburban area had a significantly higher perception<br />

than those who currently reside in the village.<br />

Compared to rural areas and villages, cities grow rapidly<br />

on the economic and environmental fronts, allowing for<br />

greater accessibility to urban enhancements, such as<br />

safe water, sanitation practices, better food quality, and<br />

health care. Factoring in areas for connecting with<br />

nature and improving the value of life, urban<br />

populations are more likely to reap the benefits of green<br />

spaces.7 Lastly, since green spaces grow avenues for<br />

obtaining physical activity, there is a connection<br />

between higher exposure to natural vegetation and<br />

reduced risk of obesity.8 Baruc Blas-Miranda et al. stated<br />

that the prevalence of overweight and obesity in Mexico<br />

raised by almost 4% between 2012 and 2018.<br />

19


Therefore, a growing interest in creating green spaces<br />

with natural vegetation to encourage healthy practices<br />

of physical activity and stress reduction. Baruc Blas-<br />

Miranda et al. formed a cross-sectional study to examine<br />

the impact green spaces have on Mexican adults ages<br />

20-59 who are high risk for obesity and cardiovascular<br />

disease. Researchers excluded age groups younger than<br />

20 and older than 60 years of age. The participants who<br />

met the criteria were from North, South, Central Mexico,<br />

and Mexico City. Data was gathered through the<br />

National Health and Nutrition Survey 2018-2019 as was<br />

reported as follows – out of the 12,631 adults sampled,<br />

58% were women, 75% were classified as obese, and<br />

79% lived in urban areas distributed in central and<br />

southern Mexico. Furthermore, values from the<br />

Normalized Difference Vegetation Index (NDVI) were<br />

used to estimate the amount of exposure to green<br />

vegetation for participants. The method does not<br />

capture the types of vegetation each participant utilizes<br />

nor the amount of vegetation they have in their vicinity.<br />

Trained research assistants made home visits to<br />

determine weight and height to calculate BMI with<br />

anthropometric equipment. While the measurement<br />

was used as a general indicator of nutritional status, it<br />

did not differentiate body composition. Additional<br />

covariates include education, socio-economic status,<br />

and physical activity, which was collected using the selfreported<br />

International Physical Activity Questionnaire<br />

(IPAQ). The IPAQ had a standard of being moderate to<br />

vigorously active for at least 150 minutes per week or not<br />

applicable. The results showed a positive correlation<br />

between sociodemographic and NDVI characteristics in<br />

relation to the prevalence of obesity. For instance,<br />

participants who lived in urban areas with the lowest<br />

exposure to green spaces had a 77% prevalence of<br />

obesity and higher socioeconomic status. In contrast,<br />

participants who lived in rural areas with the highest<br />

exposure to green spaces had a 72% prevalence of<br />

obesity and lower socioeconomic status. In terms of the<br />

connection to physical activity, 81.21% reported as<br />

moderate or vigorously active and lived in areas with<br />

more exposure to natural vegetation. In addition, the<br />

data showed an association with NDVI and BMI<br />

measurements in relation to obesity risk. Estimates from<br />

adjusted analyses demonstrated that participants who<br />

lived in areas with the highest exposure to green spaces<br />

had -1.1 kg/m2 lower BMI than participants residing in<br />

areas with the lowest exposure.<br />

Estimates from unadjusted analyses showed that<br />

participants who lived in rural areas with the highest<br />

exposure to natural vegetation had -2.00 kg/m2 lower<br />

BMI than participants living in urban areas with the<br />

highest exposure. Thus, the researchers concluded that<br />

closer access to green spaces yields better opportunities<br />

for physical activity and recreation.8 To conclude, green<br />

zones and green spaces are small investments to<br />

establish effective change within a neighboring area.<br />

These spaces increase the health status of the<br />

population residing in that area and promote the<br />

longevity of a community as seen by targeting food<br />

insecurity, mental health, and reducing the risk of<br />

obesity.<br />

References<br />

1.Bae SG, Kim JY, Kim KY, Park SW, Bae J, Lee WK. Changes in dietary behavior among<br />

adolescents and their association with government nutrition policies in Korea, 2005-<br />

2009. J Prev Med Public Health. 2012;45(1):47-59. doi:10.3961/jpmph.2012.45.1.47<br />

2.Hanson B. Chapter 1.1 Climate Change. Sustainable Development Code. 2018.<br />

https://sustainablecitycode.org/brief/creating-greenzones/#:~:text=Green%20zones%20(also%20known%20as,to%20help%20revitalize%20<br />

an%20area.<br />

3.Khaleefah N, Alwan WS. Green Zone Planning for City Sustainability. IOP Conference<br />

Series: Earth and Environmental Science. 2022.<br />

https://iopscience.iop.org/article/10.1088/1755-1315/961/1/012075.<br />

4.Javadi R, Nasrollahi N. Urban green space and health: The role of thermal comfort on<br />

the health benefits from the urban green space; a review study. Building and<br />

environment. 2021;202:108039-. doi:10.1016/j.buildenv.2021.108039<br />

5.Bhebhe QN, Ngidi MSC, Siwela M, Ojo TO, Hlatshwayo SI, Mabhaudhi T. The<br />

Contribution of Trees and Green Spaces to Household Food Security in eThekwini<br />

Metro, KwaZulu-Natal. Sustainability (Basel, Switzerland). <strong>2023</strong>;15(6):4855-.<br />

doi:10.3390/su1506485<br />

6.Van den Berg M, Wendel-Vos W, van Poppel M, Kemper H, van Mechelen W, Maas J.<br />

Health benefits of green spaces in the living environment: A systematic review of<br />

epidemiological studies. Urban forestry & urban greening. 2015;14(4):806-816.<br />

doi:10.1016/j.ufug.2015.07.008<br />

7.Liu F, Tian Y, Jim C, Wang T, Luan J, Yan M. Residents’ Living Environments, Self-Rated<br />

Health Status and Perceptions of Urban Green Space Benefits. Forests. 2022;13(1):9-.<br />

doi:10.3390/f13010009<br />

8.Baruc Blas-Miranda N, Lilia Lozada-Tequeanes A, Antonio Miranda-Zuniga J, Jimenez<br />

MP. Green Space Exposure and Obesity in the Mexican Adult Population. International<br />

journal of environmental research and public health. 2022;19(22):15072-.<br />

doi:10.3390/ijerph192215072<br />

20


World Diabetes Day<br />

<strong>November</strong> 14th


Vitamins and Minerals<br />

Do Organic<br />

Foods Increase<br />

Vitamin Content<br />

in Produce?<br />

By: Madi Cashman<br />

Vitamins are essential components of<br />

our diet, necessary for various bodily<br />

functions, and are primarily sourced<br />

from fruits, vegetables, meats, and fish.<br />

Among these sources, green leafy<br />

vegetables are known to be rich in<br />

vitamins and minerals such as oil,<br />

carbohydrates, carotene, ascorbic<br />

acid, retinol, riboflavin, folic acid, as<br />

well as minerals like calcium, iron, zinc,<br />

magnesium, manganese, and selenium.<br />

However, the methods of agricultural<br />

production, whether organic or<br />

conventional, can significantly impact<br />

the nutrient content of these<br />

vegetables.<br />

22


Organic farming has gained popularity in recent<br />

years due to its emphasis on avoiding synthetic<br />

pesticides and genetically modified organisms.<br />

Organic fertilizers, derived from plant or animal<br />

materials, are used instead of readily soluble<br />

mineral fertilizers. This article aims to explore<br />

whether organic foods have a positive effect on<br />

the vitamin content of produce compared to<br />

conventionally grown counterparts.<br />

VITAMIN C<br />

Vitamin C is a potent antioxidant1 that plays a<br />

crucial role in various bodily functions. Organic<br />

vegetables were found to have higher vitamin C<br />

content compared to nonorganic ones, with<br />

variations ranging from 8.6% for carrots to 23.7%<br />

for cabbage2. These results align with several<br />

studies indicating that organic vegetables tend<br />

to have higher vitamin C levels than<br />

conventionally grown ones<br />

VITAMIN E<br />

Vitamin E is another vital antioxidant that is<br />

essential for maintaining cell health1. Organic<br />

vegetables were found to contain significantly<br />

more vitamin E than nonorganic ones, with<br />

increases ranging from 15.6% for squashes to<br />

47.8% for lettuces2. This suggests that organic<br />

farming practices may enhance the vitamin E<br />

content in vegetables.<br />

VITAMIN A<br />

Vitamin A is crucial for vision and immune<br />

function. 1 This vitamin is derived from β-<br />

carotene found in many vegetables. Organic<br />

vegetables were found to have higher β-<br />

carotene content than their nonorganic<br />

counterparts, ranging from 18.5% in carrots to<br />

39% in tomatoes.2 This suggests that organic<br />

farming methods may positively impact β-<br />

carotene levels in produce as well.<br />

23


PHOSPHORUS<br />

Phosphorus is a mineral essential for various<br />

bodily functions, such as growth, maintenance,<br />

and repair of all tissues and cells. 1 Organic<br />

vegetable were found to contain higher levels<br />

than nonorganic ones, ranging from 13% in<br />

eggplants to 43% in squashes2, which are both<br />

very significant differences.<br />

CALCIUM<br />

Calcium is vital for bone health and nerve<br />

function. 1 Calcium was also found in higher<br />

quantities in organic vegetables compared to<br />

nonorganic ones, ranging from 11.5% for cabbage<br />

to 64% for eggplants. 2 Similar findings were<br />

observed in other studies, further supporting the<br />

idea that organic farming practices may<br />

enhance calcium content in vegetables. The comparison of organic and nonorganic<br />

vegetables suggests that organic farming<br />

practices can positively impact the nutrient<br />

content of produce. Organic vegetables were<br />

found to have higher levels of vitamin C, vitamin<br />

E, β-carotene, phosphorus, and calcium than<br />

their conventionally grown counterparts. While<br />

the specific mechanisms behind these<br />

differences may vary, organic farming methods<br />

have the potential to enhance the nutritional<br />

value of fruits and vegetables. However, it is<br />

essential to consider other factors such as<br />

climate, soil type, and farming practices when<br />

evaluating the overall nutritional benefits of<br />

organic foods.<br />

References<br />

1. ‌Better Health Channel. Vitamins and minerals |<br />

betterhealth.vic.gov.au. www.betterhealth.vic.gov.au. Published<br />

December 20, 2020.<br />

https://www.betterhealth.vic.gov.au/health/HealthyLiving/Vita<br />

mins-and-minerals<br />

2. El-Bassel HA, El-Gazzar HH. Comparable study between<br />

organic and nonorganic vegetables in their contents of some<br />

nutritive components. Journal of Medicine in Scientific Research.<br />

2019;2(3):204. doi:https://doi.org/10.4103/JMISR.JMISR_17_19<br />

24


Meet the Team<br />

Editor in Chief<br />

Delaney<br />

Tindal<br />

Co-Editor in Chief<br />

Leigh Anne<br />

Vanzant<br />

Head Publisher<br />

Ashley<br />

Demmery<br />

Media Manager<br />

Maddie<br />

Levenson<br />

Faculty Advisor<br />

Dr. Alireza<br />

Jahan-Mihan<br />

Treasurer<br />

Grace<br />

Scoggins<br />

27


Meet the Team<br />

Secretary Flyer Creator Publisher<br />

Izzy<br />

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Publisher<br />

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Stringfield<br />

Publisher<br />

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Hayes<br />

Publisher<br />

Sarah<br />

Turner<br />

28


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Publisher Publisher Editor<br />

Katelyn<br />

Cagyan<br />

Alondra<br />

Velazquez Ortiz<br />

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Faria<br />

Editor<br />

Sophia<br />

Sardella<br />

Editor<br />

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Editor<br />

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Thompson<br />

29


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Editor Writer Writer<br />

Hailey Tavianna Madison<br />

Pond<br />

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Writer<br />

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30


Meet the Team<br />

Writer<br />

Andrea<br />

Butler<br />

Writer<br />

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Aljian<br />

Interviewer<br />

Julianna<br />

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Interviewer<br />

Kaley<br />

Morrissey<br />

31

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