Accidental Drug Death Awarness

Somee Lee, Deborah Markos, Audrey Luey, Sungjun Cho

Spring 2023

Abstract

We are concerned with the role that substance abuse and certain drugs play in our world today. This is mainly because we have noticed that contrasting social health determinants create various challenges relating to drug use.

Keywords

Drug-related deaths, substance abuse, overdose, opioid, Connecticut

Introduction

The continuous evolution of the society we live in today poses different challenges for many, and the way in which we choose to face them is unique to each of our circumstances. More specifically, it is becoming increasingly important to bring attention to the way in which drugs are used and monitored. As we know, there are various medications designed to treat specific conditions, however their individual guidelines can still mislead people or be overlooked. While drugs are made with the intention of helping people, we want to explore how the opposite can occur. We acknowledge that the use of drugs is very open-ended and that people have their own, different reasons for engaging in them. In order to fully grasp the severity of drug abuse and accidents, reliable and transparent data must be evaluated.

This investigation seeks to answer some key questions that aim to provide context for accidental drug related deaths from 2012-2021. They also help us to better understand and prevent these occurences from happening:

  • What type of drug/substance has the highest accidental cause of death?
  • What age group experiences the most drug/substance abuse?
  • Do male or females have a higher accidental cause of death due to drug/substances?
  • What city in Connecticut has the highest drug-related accidental cause of death?

The Dataset

Where did you find the data? Please include a link to the data source

  • We found our data on Accidental Drugs from the data.gov website. Accidental Drugs is the link to the website.

Who collected the data?

  • The data was collected by the State of Connecticut Chief Medical Examiner, published by data.ct.gov.

How was the data collected or generated?

  • The data came from a study conducted by the Office of the Connecticut Chief Medical Examiner. The data was gathered using a variety of sources, including death certificates, lab tests, and investigation reports. The Connecticut Chief Medical Examiner gathers this information to examine sudden, unexpected, and violent deaths in Connecticut. The data set includes information on drug-related deaths in Connecticut residents as well as visitors who died in Connecticut.

Why was the data collected?

  • The dataset provides a list of accidental deaths related to drug overdose in Connecticut from 2012 to 2021, along with the substances detected. The purpose of the dataset is to provide information on drug-related deaths in the state, especially in Connecticut.

How many observations (rows) are in your data?

  • There are 9202 observations in our dataset

How many features (columns) are in the data?

  • There are 48 features in our dataset.

What, if any, ethical questions or questions of power do you need to consider when working with this data?

  • The data on accidental drug-related deaths raises several ethical questions and issues of power that need to be considered when working with this data. One of the primary ethical concerns is ensuring that the privacy and confidentiality of the individuals who have died are protected. Data should be handled with respect and sensitivity to the victims and their families.

What are possible limitations or problems with this data? (at least 200 words)

  • While the Accidental Drug-Related Deaths dataset can be a useful resource for researchers and elected officials, it is important to be aware of its limitations and possible issues. Some possible limitations and challenges include lacking data on demographics, misreporting, misrepresenting, and so on. The dataset, for example, only includes data from Connecticut, which may not be an indicator of other states or regions. Drug use trends and accessibility to drugs might vary greatly across states and regions, thus it is important to evaluate the data in the context of these gaps. Another disadvantage is the lack of information on demographics. While the dataset contains information on the deceased person’s age and gender, it lacks information on other important demographic factors such as race, ethnicity, and socioeconomic status. This can make understanding how drug use and drug-related fatalities vary among different categories in the population difficult. Last but not least, the dataset has a drawback in that it only includes data from 2012 to 2021. While this can provide insights into long-term trends, it may not account for recent shifts in patterns of drug use or the impact of recent changes in policy. In conclusion, while the Accidental Drug-Related Deaths dataset provides valuable information on drug-related deaths in Connecticut, we must be mindful of its limits and potential issues when analyzing and utilizing the data.

Implications

Technologists and policymakers can work at the same time to make bigger data-sharing relationships that permit greater collaboration and coordination amongst stakeholders. By sharing data for the duration of one of a variety agencies and organizations, they can find out dispositions and patterns in drug-related deaths, display the effectiveness of prevention and therapy programs, and make more educated alternatives about how to allocate resources. Additionally, prevention and remedy software that is associated to particular populations and materials can be developed the use of our research. If facts expose that a sure substance is related with a excessive variety of unintended deaths, policymakers can goal rules or training campaigns to tackle the issue. Also, they can boost equipment and applied sciences that assist stop unintentional overdoses or aid folks in recovery, they will be capable of gaining knowledge of algorithms to become aware of patterns in drug-related deaths and predict which populations are at the best possible risk. This may also additionally assist designers create extra straight forward and on hand assets that furnish data on drug-related deaths and substance abuse. It should encompass cellular apps, websites, or academic substances that are tailor-made to unique age businesses or demographics too.

Limitations & Challenges

These data may contain only parts of the main problem while it is difficult to analyze all the researches provided since it is too broad. Also, limitations and challenges with this records contain underreporting or misreporting of the elements worried in the overdose deaths, as properly as barriers in the accuracy checking out methods. There may additionally be boundaries in the demographic records available, such as lacking information on race and ethnicity or socioeconomic status. Challenges may consist of making sure the accuracy and completeness of the data, specially when dealing with statistics associated to drug use and overdose deaths. Also, the scope of this research is restricted to examining present data, and accurate go-overs can also be wanted to discover the underlying reasons and elements contributing to drug-related deaths. Finally, there may be challenges in successfully speaking the findings of this lookup to policymakers and the widespread public, and in making sure that the pointers are carried out effectively.

Summary Information

One of the data calculated was the age of the individuals who died as a result of unintentional drug usage. The data set was created by utilizing the slice_max function to avoid multiple variables of the same value from being pulled using the slice function while also determining the oldest age using the max function. Similarly, I used slice_min to determine the earliest age at which someone died from drug overdose. The results showed that 87 was the oldest age of death, and 14 was the youngest. Our team felt it was crucial to identify the youngest and oldest people to die from drug usage since the findings essentially highlighted the need for everybody to use safety while handling drugs, regardless of age.

Another value analyzed was whether males or females have a higher accidental cause of death because of drugs. To determine that, I first created a new data set using the count function that had only the ‘Sex’ variable. I then used the filter and max functions to determine which sex had the greatest number of drug-related fatalities. According to the findings, drug misuse was more frequently the cause of accidental death in Male. We found the findings intriguing because men were three times as likely to die from drug-related accidents than women.

Another value calculated was the year with the most accidental drug-related deaths. The least was what? In order to determine that, I first modified the main data set by simply removing the years from the date variable, and changing the variable “Date” to “year.” Then, using the count function, I created a new data set that contained only the variable “year.” In order to determine which year had the most and least unintentional drug-related deaths, I used the filter and max functions. The results showed that 2021 was the year with the greatest number of fatalities and 2012 was the year with the fewest. It was important to determine which years saw the most and least deaths because doing so may identify a trend regarding the rate of drug-related fatalities in Connecticut.

Another variable calculated was the location of the vast majority of people who died as a result of unintentional drug use. I first created another data set using the count function that contained only the ‘Residence City’ variable to determine that. I then used the filter and max functions to figure out which city had the most number of residents who had died from drug-related accidents. According to the findings, the city where the persons who died from unintentional drug use resided was HARTFORD. It was interesting to see which city has the most residents because I learned on How Diverse is Connecticut that HARTFORD is one of Connecticut’s most diverse cities. It raises the question, what can be deduced from the data found?

Last but not least, we calculated which city had the greatest and least drug-related fatalities. I used the count function to create a new data set containing only the variable “Death City” in order to identify that. After that, I used the filter and max functions to determine which city experienced the highest number of fatal drug overdoses. The results showed that the city with the most drug-related unintentional deaths was designated as HARTFORD while the variable ‘least_deaths_city’ produced a list of 39 cities with each having just one death. Our team was interested in which city had the most drug-related fatalities because we wanted to discover whether there was any connection between the cities with the most and the fewest fatal drug overdoses.

Table

year Age Sex Death City
2014 14 Female HARTFORD
2021 14 Female BRISTOL
2018 15 Male BRISTOL
2020 15 Male PUTNAM
2020 16 Male TORRINGTON
2012 16 Male WATERFORD
2021 16 Male MANCHESTER
2018 17 Female MERIDEN
2012 17 Female NEW MILFORD
2012 17 Male ENFIELD
2020 17 Female FAIRFIELD
2014 17 Male DANBURY
2017 17 Male NEW PRESTON
2019 17 Female NEW HAVEN
2021 17 Male ENFIELD
2018 17 Female NEW BRITAIN
2015 17 Female MERIDEN
2016 17 Female NEW LONDON
2015 17 Female WATERTOWN
2018 17 Male NEW LONDON
2016 18 Male EAST HADDAM
2012 18 Male NEW LONDON
2014 18 Male CHAPLIN
2020 18 Female EAST HARTFORD
2015 18 Male GLASTONBURY

Our table displays the year, age, and city of death for each individual. The table lists ages in chronological order, with the youngest listed as 14 and the oldest listed as 87 at the bottom. This table compares the cities where individuals have died and the year to show the trend of the ages among those who have died from drug use unintentionally. One can learn more about trends and patterns in unintentional drug-related death over time by looking at these aggregate metrics. To show the variations in unintentional drug-related death rates, the table allows comparisons across various years, ages, and cities.

Chart 1

We chose this chart to analyze drug trends and determine which types of drugs/substances have the highest and lowest rates of accidental cause of death. Based on the data, we found that Fentanyl had the highest number of accidental deaths, while Morphine (not heroin) had the lowest. To visualize this trend effectively, we decided to create a scatter plot spanning from 2012 to 2021.

The graph reveals important information about the drugs’ impact on accidental deaths. Fentanyl shows a consistent increase in accidental deaths over the entire period from 2012 to 2021. Notably, there was a sharp rise in deaths during 2015 to 2016, indicating a significant increase in Fentanyl-related fatalities during that time. This suggests that 2015 was likely the year when Fentanyl started to gain popularity and became more prevalent as a cause of accidental deaths.

On the other hand, Morphine (not heroin) only appears prominently around 2016 and steadily declines afterward. The graph illustrates a relatively lower number of accidental deaths attributed to Morphine (not heroin) compared to Fentanyl.

Overall, this chart provides valuable insights into the drug-related accidental deaths, indicating the increasing dominance of Fentanyl over the years, while highlighting the limited impact of Morphine (not heroin) in comparison.

Chart 2

Rationale for choosing this chart:

  • The purpose of creating this visualization was to compare the two gender categories and their drug use as identified in our data set. A bar chart allows for categorical data to be easily interpreted and ranked by their numerical values accordingly.

Insights from the chart:

  • This bar chart illustrates that from 2012-2021, males in Connecticut had a higher number of accidental drug related deaths than women. Given that the gap between these values is quite large, it leads us to question why this may be. While there could be many explanations, some may include that men are more likely to take risks, have easier access to drinking or the use of drugs, and that certain stigmas surrounding women and drug/substance use can discourage their participation. Regardless, it is important to keep in mind that substances do not discriminate based on gender, and both men and women can experience drug abuse and their effects.

Chart 3

Rationale for choosing this chart:

  • The purpose of creating this bar graph was to find out the most and least drug abuse age groups, also searching for the 5 most drug abused cities in order to find any reltionships of why the city tends to have higher risk of abusement in drugs especially for the age group that is in big danger of drug problems. By visualizing this information in a bar graph, it becomes easier to observe the trends over time (from 2012 to 2021).

Insights from the chart:

  • The bar graph illustrates that among the age groups, 36 years old group had the most drug abusements while 77 years old has the least. The top 5 cities with most drug abuse was Bridgeport, Hartford, New Haven, Waterbury, and New Britain in order. Given these graphs that imply the most drug abuse for 36 years old age group, it was beacuse cities like Bridgeport, Hartford, New Britain, Waterbury, and New Haven tend to have higher rates of drug abuse compared to other cities in Connecticut due to a combination of factors. Firstly, these cities have a relatively larger population and higher population density, which can contribute to increased drug abuse cases. The greater accessibility to drugs, availability of drug markets, and social influences in densely populated areas can contribute to a higher prevalence of drug abuse.Secondly, socioeconomic factors play a role. Some of these cities may have higher poverty rates, unemployment, and limited access to resources such as education, healthcare, and social support systems. Economic challenges and lack of opportunities can contribute to drug abuse issues, as individuals may turn to drugs as a coping mechanism or resort to illegal activities associated with drug use.Furthermore, the proximity of these cities to major transportation routes and urban centers can make them more susceptible to drug trafficking and distribution networks. The easy availability of drugs in these areas can lead to higher rates of drug abuse.Lastly, the social environment of these cities can influence drug abuse rates. Factors such as a history of substance abuse, a culture of drug use, or limited community resources for prevention and treatment can contribute to higher rates of drug abuse too. However, individual cases and specific circumstances may vary, and a comprehensive analysis of the unique social, economic, and environmental factors within each city is necessary to fully comprehend the complexity of drug abuse dynamics.
## Age group with the most drug abuse: 36
## Age group with the least drug abuse: 77
## Top 5 cities with the most drug abuse (Age 36): BRIDGEPORT HARTFORD NEW HAVEN WATERBURY NEW BRITAIN
## Bottom 5 cities with the least drug abuse (Age 36): WINCHESTER WINSTED WOLCOTT WOODBRIDGE WOODBURY
## Top 5 cities with the most drug abuse (Age 77): NEW HAVEN
## Bottom 5 cities with the least drug abuse (Age 77): NEW HAVEN