importance of research in basic

What is Basic Research?

Introduction

What is the meaning of basic research, examples of basic research, how do i perform basic research.

Basic science research is an essential pillar of scientific knowledge, because it extends understanding, provides new insights, and contributes to the advancement of science and fundamental knowledge across disciplines. In contrast, applied research aims for the discovery of practical solutions, which can involve using a technology or innovation that stems from existing knowledge. Basic science research potentially allows for generating ideas on which applied science can build novel inquiry and useful applications.

The process for conducting basic research is essentially the same as in an applied research orientation, but a better understanding of the distinction may prove increasingly important when crafting your research inquiry. In this article, we'll detail the characteristics and importance of basic research.

One of the key distinctions in science is the divide between basic and applied research . Applied research is directly associated with practical applications such as:

• career development
• program evaluation
• policy reform
• community action

In inquiries regarding each of these applications, researchers identify a specific problem to be solved and design a study intentionally aimed at developing solutions to that problem. Basic research is less concerned about specific problems and more focused on the nature of understanding.

Characteristics of basic research

Research that advances understanding of knowledge has distinguishing characteristics and important considerations.

• Focus on theoretical development . Rather than focus on practical applications, scholars in basic science research are more interested in ordering data and understanding in a scientific manner. This means expanding the consensus understanding of theory and the proposal of new theoretical frameworks that ultimately further research.
• Exploratory research questions . Basic research tends to look at areas where there is insufficient theoretical coherence to empirically understand phenomena. In other words, basic research often employs research questions that seek greater definition of knowledge.
• Funding for basic science . The nature of the support available for research depends on whether the science is basic or applied . Government agencies, national institutes, and private organizations all have different objectives, making some more appropriate for basic research than others.
• Writing for research dissemination . Academic journals exist on a continuum between theoretical and practical orientations. Journals that are more interested in theoretical and methodological discussions are more appropriate for basic research than are journals that look for more practical implications arising from research.

The brief survey of these characteristics should guide researchers about how they should approach research design in terms of feasibility, methods, and execution. This discussion shouldn't preclude you from pursuing basic research if it is more appropriate to your research inquiry. Instead, it should inform you of the opportunities, advantages, and challenges of basic research.

Importance of basic research

Basic research may seem aimless and unfocused if it doesn't yield any direct practical implications. However, its contribution to scholarly discussion cannot be overstated as it guides the development of theories and facilitates critical discussion about what applied studies to pursue next.

Basic science has guided fields such as microbiology, engineering, and chemistry. Scientists ultimately use its findings to develop new methods in treating disease and innovating on new technology.

Its contribution to the social sciences through observation and longitudinal study is also immeasurable. While basic research is often a precursor to more applied science, the theories it generates spur further study that ultimately leads to professional development programs and policy reform in social institutions.

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Different fields rely on both applied and basic science for generating new knowledge. While applied research looks to yield direct benefits through real-world applications, basic research provides the necessary theoretical foundation for practical research in various fields.

Basic research example in education

Basic research in schooling contexts focuses on understanding the nature of teaching and learning or the processes within educational environments before any focused investigation can be designed, let alone conducted. Basic research is necessary in this case because of the various situated differences across learners who come from different cultures and backgrounds.

Basic research in education looks at various inquiries such as how teachers and students interact with each other and how alternative assessments can create positive learning outcomes. Ultimately, this may lead to applied research that can facilitate the creation of teacher education and professional development programs.

Basic research example in psychology

Psychology is a field that is under constant development. Basic research is essential to developing theories related to human behavior and mental processes. The subfield of cognition is a significant benefactor of basic research as it relies on novel theoretical frameworks relating to memory and learning.

Basic research example in health

A great deal of health research that reaches public consciousness is undoubtedly applied research. The development of vaccines and other medicine to combat the COVID-19 pandemic was one such line of inquiry that addressed a practical need.

That said, scientists will undoubtedly credit basic research as a precursor to medical breakthroughs in applied science research. The knowledge gained through basic research laid the foundation for genomic sequencing of the COVID-19 virus, while experiments on living systems created knowledge about how to safely vaccinate the human body.

The National Institute of Health sponsors such basic research and research in other areas such as human DNA, while the National Science Foundation funds basic research on topics such as gender stereotypes and stress levels.

At its core, all scientific inquiry seeks to identify causal factors, relationships, and distinguishing characteristics among concepts and phenomena. As a result, the process is essentially the same for basic or applied science. Nonetheless, it is worth reviewing the process.

• Research design . Identify gaps in existing research that novel inquiry can address. A rigorous literature review can help identify theoretical or methodological gaps that a new study with an exploratory research question can address.
• Data collection . Exploratory research questions tend to prioritize data collection methods such as interviews , focus groups , and observations . Basic research, as a result, casts a wide net for any and all potential data that can facilitate generation of theoretical developments.
• Data analysis . At this stage, the goal is to organize and view your data in such a way that facilitates the identification of key insights. Analysis in basic research serves the dual purpose of filtering data through existing theoretical frameworks and generating new theory.
• Research dissemination . Once you determine your findings, you will want to present your insights in an empirical and rigorous manner. Visualizing data in your papers and presentations is useful for pointing out the most relevant data and analysis in your study.

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Basic Research

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• Sohvi Leih 4 &
• David J. Teece 5 , 6  

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Basic research can be defined as systematic inquiry that involves a quest for some fundamental scientific aspects of phenomena without any specific practical applications in mind. The pay-off of basic research is often uncertain and, once published, difficult to appropriate. Accordingly, the social returns to basic research exceed the private returns, rendering it a ‘public good’. Basic research results in contributions to the world stock of scientific knowledge. It ultimately supports long-term economic growth, increased productivity and subsequent practical applications on a global basis.

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Research: Meaning and Purpose

Scientific Relevance

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Leih, S., Teece, D.J. (2018). Basic Research. In: Augier, M., Teece, D.J. (eds) The Palgrave Encyclopedia of Strategic Management. Palgrave Macmillan, London. https://doi.org/10.1057/978-1-137-00772-8_332

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Fundamental Research

Fundamental research , also known as  basic research  or  pure research  does not usually generate findings that have immediate applications in a practical level. Fundamental research is driven by curiosity and the desire to expand knowledge in specific research area. This type of research makes a specific contribution to the academic body of knowledge in the research area.

Fundamental studies tend to make generalizations about the phenomenon, and the philosophy of this type of studies can be explained as ‘gathering knowledge for the sake of knowledge’. Fundamental researches mainly aim to answer the questions of why, what or how and they tend to contribute the pool of fundamental knowledge in the research area .

Opposite to fundamental research is  applied research  that aims to solve specific problems, thus findings of applied research do have immediate practical implications.

Differences between Fundamental and Applied Research

Differences between applied and fundamental research have been specified in a way that fundamental research studies individual cases without generalizing, and recognizes that other variables are in constant change.

Applied research, on the contrary, seeks generalizations and assumes that other variables do not change. The table below summarizes the differences between the two types of research in terms of purpose and context:

Differences between fundamental and applied research [1]

It is important to note that although fundamental studies do not pursue immediate commercial objectives, nevertheless, findings of fundamental studies may result in innovations, as well as, generating solutions to practical problems. For example, a study entitled “A critical assessment of the role of organizational culture in facilitating management-employee communications” is a fundamental study, but findings of this study may be used to increase the levels of effectiveness of management-employee communications, thus resulting in practical implications.

Examples of Fundamental Research

The following are examples for fundamental researches in business:

• A critical analysis of product placement as an effective marketing strategy
• An investigation into the main elements of brands and branding
• A study of factors impacting each stage of product life cycle

Advantages and Disadvantages of Fundamental Research

Advantages of fundamental research are considered as disadvantages of applied research and vice versa. Fundamental researches are important to expand the pool of knowledge in any discipline. Findings of fundamental studies are usually applicable in a wide range of cases and scenarios. Fundamental studies usually do not have strict deadlines and they are usually driven by the curiosity of the researcher.

At the same time, fundamental studies have disadvantages as well. Findings of this type of studies have little or no practical implications. In other words, fundamental studies do not resolve concrete and specific business problems.

My e-book,  The Ultimate Guide to Writing a Dissertation in Business Studies: a step by step assistance   contains discussions of research types and application of research methods in practice. The e-book also explains all stages of the  research process  starting from the  selection of the research area  to writing personal reflection. Important elements of dissertations such as  research philosophy ,  research approach ,  research design ,  methods of data collection  and  data analysis , sampling and others are explained in this e-book in simple words.

John Dudovskiy

[1] Table adapted from Saunders, M., Lewis, P. & Thornhill, A. (2012) “Research Methods for Business Students” 6 th  edition, Pearson Education Limited

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Basic Research – Types, Methods and Examples

Table of Contents

Basic Research

Definition:

Basic Research, also known as Fundamental or Pure Research , is scientific research that aims to increase knowledge and understanding about the natural world without necessarily having any practical or immediate applications. It is driven by curiosity and the desire to explore new frontiers of knowledge rather than by the need to solve a specific problem or to develop a new product.

Types of Basic Research

Types of Basic Research are as follows:

Experimental Research

This type of research involves manipulating one or more variables to observe their effect on a particular phenomenon. It aims to test hypotheses and establish cause-and-effect relationships.

Observational Research

This type of research involves observing and documenting natural phenomena without manipulating any variables. It aims to describe and understand the behavior of the observed system.

Theoretical Research

This type of research involves developing and testing theories and models to explain natural phenomena. It aims to provide a framework for understanding and predicting observations and experiments.

Descriptive Research

This type of research involves describing and cataloging natural phenomena without attempting to explain or understand them. It aims to provide a comprehensive and accurate picture of the observed system.

Comparative Research

This type of research involves comparing different systems or phenomena to identify similarities and differences. It aims to understand the underlying principles that govern different natural phenomena.

Historical Research

This type of research involves studying past events, developments, and discoveries to understand how science has evolved over time. It aims to provide insights into the factors that have influenced scientific progress and the role of basic research in shaping our understanding of the world.

Data Collection Methods

Some common data collection methods used in basic research include:

• Observation : This involves watching and recording natural phenomena in a systematic and structured way. Observations can be made in a laboratory setting or in the field and can be qualitative or quantitative.
• Surveys and questionnaires: These are tools for collecting data from a large number of individuals about their attitudes, beliefs, behaviors, and experiences. Surveys and questionnaires can be administered in person, by mail, or online.
• Interviews : Interviews involve asking questions to a person or a group of people to gather information about their experiences, opinions, and perspectives. Interviews can be structured, semi-structured, or unstructured.
• Experiments : Experiments involve manipulating one or more variables and observing their effect on a particular phenomenon. Experiments can be conducted in a laboratory or in the field and can be controlled or naturalistic.
• Case studies : Case studies involve in-depth analysis of a particular individual, group, or phenomenon. Case studies can provide rich and detailed information about complex phenomena.
• Archival research : Archival research involves analyzing existing data, documents, and records to answer research questions. Archival research can be used to study historical events, trends, and developments.
• Simulation : Simulation involves creating a computer model of a particular phenomenon to study its behavior and predict its future outcomes. Simulation can be used to study complex systems that are difficult to study in the real world.

Data Analysis Methods

Some common data analysis methods used in basic research include:

• Descriptive statistics: This involves summarizing and describing data using measures such as mean, median, mode, and standard deviation. Descriptive statistics provide a simple and easy way to understand the basic properties of the data.
• Inferential statistics : This involves making inferences about a population based on data collected from a sample. Inferential statistics can be used to test hypotheses, estimate parameters, and quantify uncertainty.
• Qualitative analysis : This involves analyzing data that are not numerical in nature, such as text, images, or audio recordings. Qualitative analysis can involve coding, categorizing, and interpreting data to identify themes, patterns, and relationships.
• Content analysis: This involves analyzing the content of text, images, or audio recordings to identify specific words, phrases, or themes. Content analysis can be used to study communication, media, and discourse.
• Multivariate analysis: This involves analyzing data that have multiple variables or factors. Multivariate analysis can be used to identify patterns and relationships among variables, cluster similar observations, and reduce the dimensionality of the data.
• Network analysis: This involves analyzing the structure and dynamics of networks, such as social networks, communication networks, or ecological networks. Network analysis can be used to study the relationships and interactions among individuals, groups, or entities.
• Machine learning : This involves using algorithms and models to analyze and make predictions based on data. Machine learning can be used to identify patterns, classify observations, and make predictions based on complex data sets.

Basic Research Methodology

Basic research methodology refers to the approach, techniques, and procedures used to conduct basic research. The following are some common steps involved in basic research methodology:

• Formulating research questions or hypotheses : This involves identifying the research problem and formulating specific questions or hypotheses that can guide the research.
• Reviewing the literature: This involves reviewing and synthesizing existing research on the topic of interest to identify gaps, controversies, and areas for further investigation.
• Designing the study: This involves designing a study that is appropriate for the research question or hypothesis. The study design can involve experiments, observations, surveys, case studies, or other methods.
• Collecting data: This involves collecting data using appropriate methods and instruments, such as observation, surveys, experiments, or interviews.
• Analyzing data: This involves analyzing the collected data using appropriate methods, such as descriptive or inferential statistics, qualitative analysis, or content analysis.
• Interpreting results : This involves interpreting the results of the data analysis in light of the research question or hypothesis and the existing literature.
• Drawing conclusions: This involves drawing conclusions based on the interpretation of the results and assessing their implications for the research question or hypothesis.
• Communicating findings : This involves communicating the research findings in the form of research reports, journal articles, conference presentations, or other forms of dissemination.

Applications of Basic Research

Some applications of basic research include:

• Medical breakthroughs : Basic research in fields such as biology, chemistry, and physics has led to important medical breakthroughs, including the discovery of antibiotics, vaccines, and new drugs.
• Technology advancements: Basic research in fields such as computer science, physics, and engineering has led to advancements in technology, such as the development of the internet, smartphones, and other electronic devices.
• Environmental solutions: Basic research in fields such as ecology, geology, and meteorology has led to the development of solutions to environmental problems, such as climate change, air pollution, and water contamination.
• Economic growth: Basic research can stimulate economic growth by creating new industries and markets based on scientific discoveries and technological advancements.
• National security: Basic research in fields such as physics, chemistry, and biology has led to the development of new technologies for national security, including encryption, radar, and stealth technology.

Examples of Basic Research

Here are some examples of basic research:

• Astronomy : Astronomers conduct basic research to understand the fundamental principles that govern the universe, such as the laws of gravity, the behavior of stars and galaxies, and the origins of the universe.
• Genetics : Geneticists conduct basic research to understand the genetic basis of various traits, diseases, and disorders. This research can lead to the development of new treatments and therapies for genetic diseases.
• Physics : Physicists conduct basic research to understand the fundamental principles of matter and energy, such as quantum mechanics, particle physics, and cosmology. This research can lead to new technologies and advancements in fields such as medicine and engineering.
• Neuroscience: Neuroscientists conduct basic research to understand the structure and function of the brain, including how it processes information and controls behavior. This research can lead to new treatments and therapies for neurological disorders and brain injuries.
• Mathematics : Mathematicians conduct basic research to develop and explore new mathematical theories, such as number theory, topology, and geometry. This research can lead to new applications in fields such as computer science, physics, and engineering.
• Chemistry : Chemists conduct basic research to understand the fundamental properties of matter and how it interacts with other substances. This research can lead to the development of new materials, drugs, and technologies.

Purpose of Basic Research

The purpose of basic research, also known as fundamental or pure research, is to expand knowledge in a particular field or discipline without any specific practical application in mind. The primary goal of basic research is to advance our understanding of the natural world and to uncover fundamental principles and relationships that underlie complex phenomena.

Basic research is often exploratory in nature, with researchers seeking to answer fundamental questions about how the world works. The research may involve conducting experiments, collecting and analyzing data, or developing new theories and hypotheses. Basic research often requires a high degree of creativity, innovation, and intellectual curiosity, as well as a willingness to take risks and pursue unconventional lines of inquiry.

Although basic research is not conducted with a specific practical outcome in mind, it can lead to significant practical applications in various fields. Many of the major scientific discoveries and technological advancements of the past century have been rooted in basic research, from the discovery of antibiotics to the development of the internet.

In summary, the purpose of basic research is to expand knowledge and understanding in a particular field or discipline, with the goal of uncovering fundamental principles and relationships that can help us better understand the natural world. While the practical applications of basic research may not always be immediately apparent, it has led to significant scientific and technological advancements that have benefited society in numerous ways.

When to use Basic Research

Basic research is generally conducted when scientists and researchers are seeking to expand knowledge and understanding in a particular field or discipline. It is particularly useful when there are gaps in our understanding of fundamental principles and relationships that underlie complex phenomena. Here are some situations where basic research might be particularly useful:

• Exploring new fields: Basic research can be particularly valuable when researchers are exploring new fields or areas of inquiry where little is known. By conducting basic research, scientists can establish a foundation of knowledge that can be built upon in future studies.
• Testing new theories: Basic research can be useful when researchers are testing new theories or hypotheses that have not been tested before. This can help scientists to gain a better understanding of how the world works and to identify areas where further research is needed.
• Developing new technologies : Basic research can be important for developing new technologies and innovations. By conducting basic research, scientists can uncover new materials, properties, and relationships that can be used to develop new products or technologies.
• Investigating complex phenomena : Basic research can be particularly valuable when investigating complex phenomena that are not yet well understood. By conducting basic research, scientists can gain a better understanding of the underlying principles and relationships that govern complex systems.
• Advancing scientific knowledge: Basic research is important for advancing scientific knowledge in general. By conducting basic research, scientists can uncover new principles and relationships that can be applied across multiple fields of study.

Characteristics of Basic Research

Here are some of the main characteristics of basic research:

• Focus on fundamental knowledge : Basic research is focused on expanding our understanding of the natural world and uncovering fundamental principles and relationships that underlie complex phenomena. The primary goal of basic research is to advance knowledge without any specific practical application in mind.
• Exploratory in nature: Basic research is often exploratory in nature, with researchers seeking to answer fundamental questions about how the world works. The research may involve conducting experiments, collecting and analyzing data, or developing new theories and hypotheses.
• Long-term focus: Basic research is often focused on long-term outcomes rather than immediate practical applications. The insights and discoveries generated by basic research may take years or even decades to translate into practical applications.
• High degree of creativity and innovation : Basic research often requires a high degree of creativity, innovation, and intellectual curiosity. Researchers must be willing to take risks and pursue unconventional lines of inquiry.
• Emphasis on scientific rigor: Basic research is conducted using the scientific method, which emphasizes the importance of rigorous experimental design, data collection and analysis, and peer review.
• Interdisciplinary: Basic research is often interdisciplinary, drawing on multiple fields of study to address complex research questions. Basic research can be conducted in fields ranging from physics and chemistry to biology and psychology.
• Open-ended : Basic research is open-ended, meaning that it does not have a specific end goal in mind. Researchers may follow unexpected paths or uncover new lines of inquiry that they had not anticipated.

Advantages of Basic Research

Here are some of the main advantages of basic research:

• Advancing scientific knowledge: Basic research is essential for expanding our understanding of the natural world and uncovering fundamental principles and relationships that underlie complex phenomena. This knowledge can be applied across multiple fields of study and can lead to significant scientific and technological advancements.
• Fostering innovation: Basic research often requires a high degree of creativity, innovation, and intellectual curiosity. By encouraging scientists to pursue unconventional lines of inquiry and take risks, basic research can lead to breakthrough discoveries and innovations.
• Stimulating economic growth : Basic research can lead to the development of new technologies and products that can stimulate economic growth and create new industries. Many of the major scientific and technological advancements of the past century have been rooted in basic research.
• Improving health and well-being: Basic research can lead to the development of new drugs, therapies, and medical treatments that can improve health and well-being. For example, many of the major advances in medical science, such as the development of antibiotics and vaccines, were rooted in basic research.
• Training the next generation of scientists : Basic research is essential for training the next generation of scientists and researchers. By providing opportunities for young scientists to engage in research and gain hands-on experience, basic research helps to develop the skills and expertise needed to advance scientific knowledge in the future.
• Encouraging interdisciplinary collaboration : Basic research often requires collaboration between scientists from different fields of study. By fostering interdisciplinary collaboration, basic research can lead to new insights and discoveries that would not be possible through single-discipline research alone.

Limitations of Basic Research

Here are some of the main limitations of basic research:

• Lack of immediate practical applications : Basic research is often focused on long-term outcomes rather than immediate practical applications. The insights and discoveries generated by basic research may take years or even decades to translate into practical applications.
• High cost and time requirements: Basic research can be expensive and time-consuming, as it often requires sophisticated equipment, specialized facilities, and large research teams. Funding for basic research can be limited, making it difficult to sustain long-term projects.
• Ethical concerns : Basic research may involve working with animal models or human subjects, raising ethical concerns around the use of animals or the safety and well-being of human participants.
• Uncertainty around outcomes: Basic research is often open-ended, meaning that it does not have a specific end goal in mind. This uncertainty can make it difficult to justify funding for basic research, as it is difficult to predict what outcomes the research will produce.
• Difficulty in communicating results : Basic research can produce complex and technical findings that may be difficult to communicate to the general public or policymakers. This can make it challenging to generate public support for basic research or to translate basic research findings into policy or practical applications.

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Science in School

What is it good for basic versus applied research teach article.

Author(s): Martin McHugh, Marcus Baumann, Sarah Hayes, F. Jerry Reen, Laurie Ryan, Davide Tiana, Jessica Whelan

Basic research is often misunderstood by the public and misconstrued by the media. Try this role play to learn how research is funded and how basic research advances and protects society.

In 2019, an international research group published a paper examining the effect of the song Scary Monsters and Nice Sprites by Skrillex on the breeding behaviours of mosquitos. [ 1 ]  The paper became a viral news story, with many media outlets using the ‘obscure’ research story to generate clicks. However, the research concluded that, when mosquitos were exposed to the song, they bit less and refrained from mating. The paper generated equal amounts of praise and criticism but highlights the potential of basic research and creative thinking in science. Indeed, the historical problem with basic research is the lack of immediate commercial objectives. To non-scientists, basic research can seem like a waste of money, whereas applied research, designed to solve practical problems with obvious scientific and societal benefits, seems like a better use of resources.

The following activity will bring the debate into the classroom and allow students to explore the pros and cons of basic and applied research. Using an argumentation framework, students will discuss the merits of a variety of research projects, with updates to show how some of them later turned out to be important for vaccine development for COVID-19.

What kinds of research should be funded?

In this activity, students will be divided into groups of funders and scientists. Using the materials provided, the scientists will pitch their research proposals to the funders, who will have €100 000 at their disposal. The activity will also provide cues to promote argumentation among students to develop critical thinking, reasoning, communication, and scientific literacy skills. [ 2 ]

Learning objectives and context

After the activity, students should understand

• how scientific research is funded and that this involves difficult decisions;
• the difference between basic and applied research;
• how applied research relies on basic research findings, and that it is difficult to predict what might become useful.

To set the scene, students should be asked who they think funds scientific research. Students will generate multiple answers, from the government to universities and industry. Truthfully, funding can come from a variety of sources and can be public, private, national, or international.

The next question is how do funding bodies select what research should be funded. Scientific research is often broadly divided into two types: basic research (also called fundamental research) and applied research.

• Basic research is about pushing the boundaries of our understanding and generating new knowledge. An example is researching how a physiological process works at the molecular level.
• Applied research involves applying existing knowledge to create solutions to specific problems. An example is developing a treatment for a disease.

However, many research projects have elements of both basic and applied research. Research scientists from around the world must compete and push the merits of their work to get funding.

The following role-play activity will put students in the shoes of both the funding bodies and scientists. In groups, students will be asked to pitch their project proposal to the funders, who will ultimately decide how to allocate €100 000 to a variety of projects.

A key element of this lesson is to encourage debate and argumentation. Students acting as scientists should try to convince funders with their words. They should be encouraged to make claims, rebuttals, and back up their statements with data, if possible. Each scientist will have an individual text that will give them the information to argue effectively. To support debate, funders are given a list of key questions, along with more probing questions. This activity can also be extended over multiple lessons to allow students time to debate.

Funder information sheet

Project proposal cards

Discussion cards

• For this role-play activity, divide students into groups of five or six. Each group requires four scientists and at least one funder.
• Hand out the project proposal cards to the four scientists in each group.There are four project proposals and each scientist should get a different one. One of these proposals is highly applied, while the others are more basic. All funders receive the same information sheet and can allocate €100 000. If there are two funders in a single group, then they must come to a consensus.
• Give students 10 minutes to read over their documents. Funders need to be aware of the key questions (on the information sheet) they can use to assess the proposals. Scientists need to be aware of the key arguments they need to make to receive funding (on the proposal cards).
• Each scientist then gets 2 minutes uninterrupted to make their ‘pitch’ for funding. Once complete, funders need to ask key questions and all scientists are allowed argue their positions against each other. This should take around 15 minutes.
• At the end of the activity, funders are asked to fill in the funding-allocation table at the bottom of their information sheet. This is to be kept private.
• In turn, ask the funders from each group to the front of the class. The table on their sheets can be copied onto the board and funders can fill this out. Once complete, they need to give a brief justification to the class for their decision.
• Throughout this process, ask the students if they are seeing any patterns emerging in the funding between groups.
• Ask whether the students think each project is more basic or applied.
• Next, hand out the discussion cards to each group. Project 3 is purely applied and has a clear link to vaccines, but these cards describe how proposals 1, 2, and 4 turned out to be fundamental to the development of the COVID-19 vaccine in unexpected ways.
• Get the class to discuss whether this new information would have changed their funding decisions.
• Discuss whether the applications envisioned by the researchers were necessarily those that turned out to be important.

As previously stated, the goal of this activity is that students understand how research is funded and the differences between applied and basic research. The activity is designed to highlight how basic research often forms the foundation for applied research. Both types of research are important, but basic research can be perceived negatively in the eyes of the public. It is often impossible to predict how knowledge gained through a basic research project could be vital for an application in the future. Often multiple scientific advances have to be combined for an applied impact. Sometimes, scientists must accept that they may not be able to identify an immediate application for new knowledge generated. However, without new knowledge, we may lack the foundation for future applications that could be years away.

In this example, the three more basic research proposals proved to be vital to the final application. This can be easily illustrated with proposal cards 1 and 3. Proposal card 1 discusses modified mRNA, and this research underpinned the manufacture of the COVID-19 vaccine. The two proposals are so closely linked that you can replace the word ‘polynucleotide(s)’ with mRNA on proposal card 3 and the document still makes perfect sense.

As a follow up to this activity, ask students to go online and find the most obscure and weird basic scientific research (that has been published in a peer-reviewed journal) they can find. The Ig Nobel Prizes are a good source of inspiration for this. Similar to the mosquito example used in the introduction to this activity, get the students to find practical applications behind the headlines and articles.

[1] Dieng H et al. (2019). The electronic song “Scary Monsters and Nice Sprites” reduces host attack and mating success in the dengue vector Aedes aegypti . Acta tropica 194 :93–99. doi: 10.1016/j.actatropica.2019.03.027

[2] Erduran S, Ozdem Y, Park JY (2015). Research trends on argumentation in science education: a journal content analysis from 1998–2014 . International Journal of STEM Education , 2 :5. doi: 10.1186/s40594-015-0020-1.

• Discover CRISPR-Cas9 and how it revolutionized gene editing: Chan H (2016)  Faster, cheaper, CRISPR: the new gene technology revolution .  Science in School   38 :18–21.
• Read an article on different techniques to resolve and predict protein structures: Heber S (2021)  From gaming to cutting-edge biology: AI and the protein folding problem .  Science in School   52 .
• Read an article on how modern vaccines work: Paréj K (2021)  Vaccines in the spotlight .  Science in School   53 .
• Visit the Annals of Improbable Research , which runs the Ig Nobel Prizes, to learn more about research that makes you laugh and then makes you think.
• Read a simple explanation of basic research and its importance from the National Institute of Health.
• Read a short article from Harvard University on the importance of basic research .
• Watch a video on the potential uses of CRISPR outside gene editing.
• Watch a video on how 50 years of fundamental research enabled the rapid development of mRNA vaccines for COVID-19.
• Read an article from STAT describing the main steps that – 50 years later – led to COVID-19 mRNA vaccines .
• Watch a video introducing the ESRF and its 41 beamlines .
• Read an article from Scientific American that underlines the important issue of research funding and final profits .
• Read an article from c&en magazine on synchrotrons and their uses .
• Read an   interview with Katalin Karikó  in  Scientific American  that discusses her role in developing the mRNA technology used in COVID-19 vaccines.

Dr Martin McHugh is the education and public engagement officer for SSPC , the Science Foundation Ireland (SFI) research centre for pharmaceuticals at the University of Limerick. Formerly a researcher in informal learning and part-time lecturer on science education, he has degrees from NUI Galway and the University of Edinburgh in environmental science and teaching. He is also a qualified secondary school science and biology teacher.

Dr Marcus Baumann is an assistant professor in the School of Chemistry at University College Dublin. He leads a research group aiming to develop new methods for the sustainable generation of drug-like molecules through the use of continuous-flow technologies. These methods are based on using light and enzymes in combination with machines to synthesise biologically active molecules.

Dr Sarah Hayes is the chief operating officer (COO) of SSPC . Sarah’s background is in physical chemistry and she received her PhD in Science Education. Sarah has many years of teaching experience as a physics and chemistry teacher. Through her various roles, she has been involved in research, curriculum development, and continuous professional development courses. Her most significant focus has been informal and non-formal learning and engagement.

Dr Jerry Reen is a lecturer in molecular microbial ecology at University College Cork. His research team study polymicrobial biofilm communities to understand molecular communication systems between species in disease and biotechnology. They also apply molecular technologies to harness biocatalytic proteins and bioactive compounds of marine origin.

Laurie Ryan is an assistant lecturer in general science at Athlone Institute of Technology (AIT). She is a former secondary school science teacher and conducts research in the area of STEM education and outreach. She is currently finishing her PhD examining argumentation in non-formal learning environments.

Dr Davide Tiana is a lecturer in inorganic chemistry at University College Cork. His independent group uses computational chemistry to study, understand, and explain chemistry. Their research goals range from developing new models to better explain chemical interactions (e.g., chemical bonding, dispersion forces) to the design of new molecules such as nanodrugs.

Dr Jessica Whelan is a lecturer at the University College Dublin School of Chemical and Bioprocess Engineering. Her research focuses on developing tools and approaches to optimize the production of proteins, vaccines, and cell and gene therapies. The aim is to make medicines available to patients at the highest quality and lowest cost possible.

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What is the importance of research in everyday life?

Chemotherapy. Browsing the internet. Predicting hurricanes and storms. What do these things have in common? For one, they all exhibit the importance of research in everyday life; we would not be able to do these today without preceding decades of trial and error. Here are three top reasons we recognise the importance of research in everyday life, and why it is such an integral part of higher education today.

Research increases the quality of life

According to Universities Canada , “Basic research has led to some of the most commercially successful and life-saving discoveries of the past century, including the laser, vaccines and drugs, and the development of radio and television.” Canadian universities, for example, are currently studying how technology can help breed healthier livestock, how dance can provide long-term benefits to people living with Parkinson’s, and how to tackle affordable student housing in Toronto.

We know now that modern problems require modern solutions. Research is a catalyst for solving the world’s most pressing issues, the complexity of which evolves over time. The entire wealth of research findings throughout history has led us to this very point in civilisation, which brings us to the next reason why research matters.

What does a university’s research prowess mean for you as a student? Source: Shutterstock

Research empowers us with knowledge

Though scientists carry out research, the rest of the world benefits from their findings. We get to know the way of nature, and how our actions affect it. We gain a deeper understanding of people, and why they do the things they do. Best of all, we get to enrich our lives with the latest knowledge of health, nutrition, technology, and business, among others.

On top of that, reading and keeping up with scientific findings sharpen our own analytical skills and judgment. It compels us to apply critical thinking and exercise objective judgment based on evidence, instead of opinions or rumours. All throughout this process, we are picking up new bits of information and establishing new neural connections, which keeps us alert and up-to-date.

Research drives progress forward

Thanks to scientific research, modern medicine can cure diseases like tuberculosis and malaria. We’ve been able to simplify vaccines, diagnosis, and treatment across the board. Even COVID-19 — a novel disease — could be studied based on what is known about the SARS coronavirus. Now, the vaccine Pfizer and BioNTech have been working on has proven 90% effective at preventing COVID-19 infection.

Mankind has charted such progress thanks to the scientific method. Beyond improving healthcare, it is also responsible for the evolution of technology, which in turn guides the development of almost every other industry in the automation age. The world is the way it is today because academics throughout history have relentlessly sought answers in their laboratories and faculties; our future depends on what we do with all this newfound information.

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What is basic research?

What is basic research, and is it important a new theme on sciencenordic..

This article is part of our Basic Research theme

Basic research is often described as research without any clear goals, or science to satisfy the curiosity of a lone scientist without anyone else even realising that it exists.

But this totally misses the mark, says Søren-Peter Olesen, the director of the Danish National Research Foundation Centre for Cardiac Arrhythmia at the University of Copenhagen.

The goal of basic research is “to collect information about how nature and people are put together. It’s not important that this knowledge can be used for anything concrete, the most important thing is that we improve our understanding,” he says.

   Basic Research

ScienceNordic takes you into the engine room of basic research to find out:

• What is it?
• Who does it?
• And how does it benefit us?

Read More: What is basic research?

In the coming weeks, ScienceNordic is running a special theme on basic research. We will try to cover questions like: what is the point of basic research, who pays for it, who does it, and how does it benefit society?

You can bookmark the basic research theme homepage to stay up to date with the new articles on basic research here at ScienceNordic.

Basic research expands our knowledge and leads to innovation

Basic research or “blue skies research” is conducted just as any other scientific research: scientists have a hypothesis and test it by designing experiments and making observations to develop theories that explain how the world around us works.

“It’s important for humanity to understand the world in which we live,” says Olesen.

Basic research seeks answers to fundamental questions and provides broad insights to many different scientific fields. Applied research, on the other hand, tends to have a much narrower focus within a specific field.

“Basic research is incredibly important because it lays the ground for major discoveries,” says Poul Nissen, a centre director at the Centre for Membrane Pumps in Cells and Disease (PUMPkin) at Aarhus University, Denmark.

“When we use social media and electronic gadgets, and when we develop medicine to treat diseases--this is all possible because someone was doing basic research on it twenty or forty years earlier,” he says.

“Today’s discoveries are built on investments made in previous decades to fund basic research into the unknown challenges of the future,” says Nissen.

Blurred boundaries between applied and basic researching

Public debate usually tries to draw clear distinctions between basic research and applied research, so that they appear as almost polar opposites.

Applied research appears to have specific goals: a vaccine, a new windmill, or a new battery—concrete inventions that can improve our daily lives and lead to new products in the marketplace.

It may seem obvious that scientists should start with a strategic goal for a results-orientated project that can benefit society. But the reality is very different. The two types of research are closely intertwined and in reality it’s difficult to draw a strict boundary between them.

Take Nissen’s research, for example.

His research centre studies how so-called ion-pumps work in animal and plant cells. This may at first sound like a rather narrow research field, but over the past nine years, their research has led to developments in the treatment of fungal infections following cases of pneumonia, cancer treatments, as well as advances in the understanding of migraine, muscle diseases, and the important sodium-potassium pump mechanism in cells.

Basic research is also applied research

Nissen’s results have led to several spin-off companies and other results-orientated projects.

“All good basic research ends with new perspectives that can also have practical applications,” says Nissen. “All basic research projects lead to further projects. So it has a big effect on people’s daily lives.”

In that sense, basic research is no different to applied research, he says. “It just has a longer term perspective.”

Basic research is not defined by what scientists study, but how they do it

So if a scientist discovers a new mechanism that can potentially fight malaria, or if a scientists find a correlation between certain genes and our birth weight or certain diseases, is this basic or applied research?

But that is the wrong way to think about it, according to Olesen. It is not what you study, but how you study it, that defines whether or not your research is considered basic or applied, he says.

“Basic research is not defined by the expedition in itself, but by the goals you have,” says Olesen.

In other words, if a scientist studies malaria to improve our understanding of the disease, then that is basic research. But when that understanding seeks out new treatments, it becomes applied.

Can you conduct basic research in any subject?

So are any topics off limits when it comes to basic research? What about football, for example?

“That would be great!” says Olesen.

“Football is something that you can approach from many different angles: psychology, sports medicine, and by studying game theory and other mathematical techniques. So it can be extremely beneficial,” he says.

Olesen studies heart medicine and lectures on extreme sport and the changes that occur in the body when we take part in sport.

“There’s a lot to do, and often the breakthroughs come from research fields that are a bit off the beaten track, like football.”

Amateur scientists can also do basic research

So if there are no limits for what can be studied, are there any limits for who can do it or can anyone get involved in basic research?

“A lot of research is done outside universities,” says Olesen. “In industry, of course, but also by amateurs--amateur archaeologists for example.”

Nissen agrees.

“Research is driven by many things. Partly technical developments that make new discoveries possible and partly a need to recognise something. Sometimes it’s just luck when you come across something unexpected. Even amateurs can discover things that no one else had thought of before,” he says.

-------------

Read the Danish version of this article on Videnskab.dk  

Translated by: Catherine Jex

External links

• Søren-Peter Olesen
• Poul Nissen

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The value of basic research.

People’s appreciation of game-changing new technologies frequently ignores the long, often twisting path that transforms an idea from fundamental discovery to practical application.  Those who pay for the national research agenda may not always be aware of the early and fundamental work that makes today’s technologies possible.  For example, it was basic research presented in a then-obscure scientific paper by Albert Einstein in 1917 that ultimately translated into the invention of laser technology four decades later.  The development of similarly groundbreaking technologies that promise to transform and improve our lives hinges on our investments in fundamental, curiosity-driven research today. 

But basic science has long been under fire. Between 1975 and 1987, the “Golden Fleece Award” was established and bestowed upon projects they deemed “the biggest, most ridiculous or most ironic example of government spending or waste.” Often, the “winners” were Federally funded scientific research projects taken out of context and cited without explanation.

For instance, Golden Fleece Awards were given to:

• Federal grants awarded to scientists seeking to determine why rats, monkeys, and humans clench their jaws.
• A Government study on alcohol and aggression in fish and rats.
• A Government-sponsored project to investigate the mating habits of the screwworm, an agricultural pest.

It was easy to call out these examples based on title alone. But, in an ironic (yet predictable) twist, each of these projects ultimately resulted in important and useful discoveries.

• The jaw-clenching research helped NASA and the Navy address problems associated with confining humans to small spaces for extended periods in space and underwater.
• Examining the effects of alcohol on aggression in fish and rats led to scientific insights about how alcohol affects people.
• Understanding the mating habits of the screwworm led to the ultimate eradication of the pest through the use of sterile insects, saving the U.S. cattle industry approximately $20 billion.

The heyday of the Golden Fleece Award has passed, but misunderstanding of the value of basic research and its ties to valuable applications, products, and knowledge survives today.

This is particularly true in the area of social science, where discoveries are often less tangible and developed though unexpected paths. Game theory, for example, had its roots in an analysis of gambling behaviors in 1713. Subsequent work supported by the Federal Government generated far-reaching applications that have profoundly influenced predictions about economics, human behavior, and biological systems. Basic research on game theory enabled the Federal Communications Commission to design complex auctions of the Nation’s telecommunications spectrum, netting tens of billions of dollars to the U.S. treasury.

These examples underscore one of the most exciting features of scientific research: the process of exploring the natural world in pursuit of fundamental understandings can often deliver surprising new insights. Sometimes knowledge contributes to our understanding of the world around us; other findings may lead to practical applications now, or many years in the future.  One of the hallmarks of science is that the path to knowledge is often indirect, and that in addition to rigorous investigation, discovery is often shaped by serendipity, human curiosity, and sometimes even heroism.

That’s why President Obama has staunchly supported both curiosity-driven and mission-oriented research investments across his Administration, including $146 billion for R&D overall in his proposed FY 2016 Budget --  an $8 billion or 6 percent increase from 2015 enacted levels. The Administration is also speaking out against efforts to gut funding for Earth science research and the social sciences , and is similarly opposed to placing increased administrative burdens on scientific agencies that fund the kinds of fundamental research that keeps America on the cutting-edge.

The road to many of the next great scientific or technological advances will start with basic science. I encourage you to share your favorite examples of basic research that led to unexpected insights or game changing applications on social media using #BasicResearch

Jo Handelsman is Associate Director for Science at the White House Office of Science and Technology Policy.

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Basic Research in Psychology

Basic research—also known as fundamental or pure research—refers to study and research meant to increase our scientific knowledge base. This type of research is often purely theoretical, with the intent of increasing our understanding of certain phenomena or behavior. In contrast with applied research, basic research doesn't seek to solve or treat these problems.

Basic Research Examples

Basic research in psychology might explore:

• Whether stress levels influence how often students engage in academic cheating
• How caffeine consumption affects the brain
• Whether men or women are more likely to be diagnosed with depression
• How attachment styles among children of divorced parents compare to those raised by married parents

In all of these examples, the goal is merely to increase knowledge on a topic, not to come up with a practical solution to a problem.

The Link Between Basic and Applied Research

As Stanovich (2007) noted, many practical solutions to real-world problems have emerged directly from basic research. For this reason, the distinction between basic research and applied research is often simply a matter of time. As social psychologist Kurt Lewin once observed, "There is nothing so practical as a good theory."

For example, researchers might conduct basic research on how stress levels impact students academically, emotionally, and socially. The results of these theoretical explorations might lead to further studies designed to solve specific problems. Researchers might initially observe that students with high stress levels are more prone to dropping out of college before graduating. These first studies are examples of basic research designed to learn more about the topic.

As a result, scientists might then design research to determine what interventions might best lower these stress levels. Such studies would be examples of applied research. The purpose of applied research is specifically focused on solving a real problem that exists in the world. Thanks to the foundations established by basic research, psychologists can then design interventions that will help students effectively manage their stress levels , with the hopes of improving college retention rates.

Why Basic Research Is Important

The possible applications of basic research might not be obvious right away. During the earliest phases of basic research, scientists might not even be able to see how the information gleaned from theoretical research might ever apply to real-world problems. However, this foundational knowledge is essential. By learning as much as possible about a topic, researchers are able to gather what they need to know about an issue to fully understand the impact it may have.

"For example, early neuroscientists conducted basic research studies to understand how neurons function. The applications of this knowledge were not clear until much later when neuroscientists better understood how this neural functioning affected behavior," explained author Dawn M. McBride in her text The Process of Research in Psychology . "The understanding of the basic knowledge of neural functioning became useful in helping individuals with disorders long after this research had been completed."

Basic Research Methods

Basic research relies on many types of investigatory tools. These include observation, case studies, experiments, focus groups, surveys, interviews—anything that increases the scope of knowledge on the topic at hand.

Frequently Asked Questions

Psychologists interested in social behavior often undertake basic research. Social/community psychologists engaging in basic research are not trying to solve particular problems; rather, they want to learn more about why humans act the way they do.

Basic research is an effort to expand the scope of knowledge on a topic. Applied research uses such knowledge to solve specific problems.

An effective basic research problem statement outlines the importance of the topic; the study's significance and methods; what the research is investigating; how the results will be reported; and what the research will probably require.

Basic research might investigate, for example, the relationship between academic stress levels and cheating; how caffeine affects the brain; depression incidence in men vs. women; or attachment styles among children of divorced and married parents.

By learning as much as possible about a topic, researchers can come to fully understand the impact it may have. This knowledge can then become the basis of applied research to solve a particular problem within the topic area.

Stanovich KE.  How to Think Straight About Psychology . 8th edition. Boston, MA: Pearson Allyn and Bacon; 2007.

McCain KW. “Nothing as practical as a good theory” Does Lewin's Maxim still have salience in the applied social sciences? Proceedings of the Association for Information Science and Technology . 2015;52(1):1-4. doi:10.1002/pra2.2015.145052010077

McBride DM. The Process of Research in Psychology . 3rd edition . Thousand Oaks, CA: Sage Publications; 2015.

Committee on Department of Defense Basic Research. APPENDIX D: Definitions of basic, applied, and fundamental research . In: Assessment of Department of Defense Basic Research. Washington, D.C.: The National Academic Press; 2005.

By Kendra Cherry, MSEd Kendra Cherry, MS, is a psychosocial rehabilitation specialist, psychology educator, and author of the "Everything Psychology Book."

The Importance of Basic Research

It's not only about sharing the products of science, but also the values of science—thinking longterm, thinking about both facts and the uncertainties, thinking in terms of reason. . . . If you think about the Space Race, it was wonderful to put a person on the moon, but it was pretty useless—but it was a great way to get smart phones and computers.

Director and Leon Levy Professor Robbert Dijkgraaf and Institute Trustee Lord Martin Rees joined the panel of BBC's Inside Science from the 2017 Hay Festival of Literature and the Arts to discuss the relationship between basic and applied scientific research. Listen to the discussion here .

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What is basic research and why is it important?

March 7, 2019

On March 12, the Institute will host A Focus on Pancreatic Cancer: From Foundations to Early Detection , a part of our Public Lecture Series, which is designed to engage and inform the community. The event is free and open, but registration is required (you can sign up here ).

 Attendees will hear from experts Dr. Brian Haab, whose research may lead to new ways to detect pancreatic cancer earlier and more definitively, and Dr. Bart Williams, whose work is shedding new light on how cancer cells communicate and how we may be able to block those signals, thereby treating cancer. The lecture also will highlight the importance of basic research and how it fuels advances in the clinic.  

What is basic research? Basic research seeks to answer fundamental questions about the world. It increases our knowledge and, in the case of biomedical research, lays the foundation for new treatment strategies for disease.

Questions that basic research seeks to answer include:

• How do cells “talk” to each other?
• How does a specific protein work?
• How does the shape of a molecule affect its function?

For example, the lab of Dr. Bart Williams investigates a cellular communication network called Wnt (pronounced “wint”), which plays an important role in embryonic development, particularly in the formation of the bones and the heart. Problems with Wnt can result in an array of diseases, including breast cancer, pancreatic cancer, prostate cancer, skeletal disease and type II diabetes. Dr. Williams seeks to understand the nuts and bolts of Wnt down to the most minute level, solving a number of basic research questions while also setting the stage for impacting human health.

How does basic research impact health? Basic research is the first step toward finding therapies for diseases like cancer and Parkinson’s. Once scientists understand the fundamental elements underlying our biology, they can leverage this knowledge to determine the causes of disease and find new treatments.

This process is called translational research because the scientist is translating basic research discoveries into applied solutions. In many ways, basic research is the springboard that propels health- and disease-focused research forward and, eventually, into the doctor’s office.

Translational research includes:

• Figuring out how to switch off a gene that causes uncontrolled cancer cell growth
• Understanding why bone is lost in osteoporosis and slowing or stopping the process
• Determining why some cancers migrate to the bone and finding ways to prevent it

An example comes from the lab of Dr. Brian Haab , who developed a more precise method for diagnosing pancreatic cancer early on by detecting sugars in the blood produced by malignant cells. This approach, which combines a new test with a currently existing test, is now being investigated in a clinical setting and would not have been possible without a precise understanding of the basic biology of pancreatic cancer cells.

Learn more about Dr. Haab’s research here and Dr. Williams’ research here .

Looking for more information on basic and translational research? Check out our deep dive here .

The Role of Research: To Learn, to Solve, to Inspire

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Taking a peek into the unknown is the job of professors. With their research, they ask the big, knotty questions, the questions at the limits of human understanding for which answers are not easily found.

“It is challenging,” says Joanna Carey , associate professor of environmental science and the Debi and Andy Butler Term Chair. “Basically, our job is to figure out knowledge that nobody knows yet.”

Babson College may not be a large research institution, but its professors still produce a sizable amount of research in a wide range of fields, from medicine and the environment, to history and culture, to technology and innovation, to business and entrepreneurship. In this article, five Babson professors discuss their diverse work, giving a greater appreciation of the breadth and significance of research at the College.

BABSON MAGAZINE : Read the complete Summer 2024 issue .

Their research, along with that of their colleagues, flourishes in a supportive environment. The College helps fund research endeavors and trips to academic conferences, while giving professors the freedom to pursue their scholarly interests.

Alumni donors, meanwhile, have funded numerous term chairs, which allow professors to spend more time on their research, and professors at the tight-knit school frequently collaborate across disciplines. “We challenge each other to solve problems in different ways,” says Dessislava Pachamanova , professor of analytics and computational finance and the Zwerling Family Endowed Term Chair.

The end result is research that influences and inspires, that makes an impact around the globe, that helps us understand the world and our place in it.

Professors’ research also makes its way into the classroom. “The research they’re doing outside of the classroom informs and strengthens their approach within it,” says Babson President Stephen Spinelli Jr. MBA’92, PhD . “That value proposition enhances our academic rigor and ensures Babson remains at the forefront of emerging trends in entrepreneurship and beyond.”

‘I Have Always Been Fascinated by Nature.’

Imagine a stream trickling down a mountain, as it makes its way to a river, which widens as it reaches the sea. That water is majestic and immense, and it carries with it many things on its journey. “Every time I see a river, I think, ‘That’s a lot of material being moved,’ ” says Joanna Carey, associate professor of environmental science and the Debi and Andy Butler Term Chair.

One of those things in the water is silicon, the second most abundant element in Earth’s crust and a frequent subject of Carey’s research. Silicon moves from the crust, into plants, into rivers, and finally, into the ocean.

Following that path and examining watery places such as rivers, marshes, and estuaries, Carey’s research demonstrates how human activity is causing drastic changes in the amount of silicon as it cycles through the world. Those changes have a story to tell about land use, about the food chain, about carbon dioxide levels, and about our planet as it warms.

Consider the microscopic but mighty diatoms, for instance, an abundant alga that requires silicon to grow. What will the changing levels of silicon mean for these organisms responsible for more than 20% of the oxygen produced every year on Earth?

“They are really important,” Carey says. “Their importance on a global scale can’t be overestimated.”

For the last few years, Carey has led a team that created and examined the largest data set in the world on river silicon chemistry with funding from the National Center for Ecological Analysis and Synthesis. She’ll soon be looking at data from all seven continents for a project funded by the United States Geological Survey.

To be a scientist now, trying to bring a clearer understanding of climate change’s formidable and far-reaching impact, is to perform critical work.

“It is very fundamental science,” Carey says. “There is an urgency in what we are doing.”

Much is at stake, including the future of the students she teaches in the classroom. “This is an issue they will deal with their whole lives,” Carey says.

‘Research Has Always Felt Natural to Me.’

Technology evolves fast. For those in the workplace, that speed can feel overwhelming. “There is a lot of risk of people falling behind,” says Ruben Mancha , associate professor of information systems.

Those workers falling behind are a major concern of Mancha’s research. He looks at how organizations can adopt technology and transform how they operate in a responsible way, by considering the many human implications of the changes they’re implementing. “What is different about my framing is that responsibility,” he says. “It’s focused on the human side. It’s a people-first approach.”

New tech, such as an artificial intelligence tool like ChatGPT, actually can have a positive effect on employees’ workdays, taking on tedious tasks and freeing them to focus on more essential matters.

This benefit only works, though, if workers are confident using these tools. The line between those who are tech literate and those who are not is a stark one. “Those who can work with the technology will use it,” Mancha says. “Those who can’t will be replaced.”

In his research, Mancha examines two ways that organizations can not only guide employees through technological changes but also empower them. One way is by introducing them to low-code development platforms, which offer a much easier way to code, thus enabling many more employees to become developers. The second way is to launch a sustained and effective program for upskilling, creating a workforce that is competent and confident with tech.

Such measures do more than train an employee in the latest and greatest. They also change a workforce’s mindset. Give employees a new program they know how to use, and suddenly they have greater power to transform and innovate. “It changes how people see themselves and how they use technology,” Mancha says. “It’s about bringing the innovation culture to the enterprise.”

Mancha hopes decision makers in business will take his research to heart, and he’s excited to share it with students in the classroom. Before becoming a professor, he worked as a lab scientist in biotech. Research is something that comes naturally to him.

“It is my way of thinking,” he says.

‘I Like to Solve Problems.’

Unfortunately, the work of the International Committee of the Red Cross is seemingly never-ending. The essential organization operates in war zones—in Ukraine, in the Gaza Strip, and in conflict areas far removed from the world’s spotlight. “There are fires everywhere,” says Dessislava Pachamanova, professor of analytics and computational finance and the Zwerling Family Endowed Term Chair.

The work is not only relentless, but it is also costly and logistically challenging. Because of the alarming number of conflicts around the world in recent years, the organization faced a substantial funding shortfall. As a result, a team composed of Pachamanova, other researchers, and supply chain coordinators within the organization sought to determine how to best allocate medical supplies for where they need to go.

This was a tricky thing to figure out. Ship too many supplies, and costly medications may sit unused and expire. Ship too little, and people may not receive the critical, lifesaving supplies they need. For more than a year, Pachamanova and the group looked at the issue.

Ultimately, they developed an inventory management decision support system that was rolled out across a dozen medical distribution centers in Africa, the Middle East, and Ukraine in 2023. By reducing the inventory levels of medical supplies by nearly a quarter with virtually no negative effect on service, the system saved the Red Cross a significant amount of money while facilitating a collaborative planning process across the organization. “The Red Cross considers it a great success,” Pachamanova says.

This is exactly the type of result she is seeking with her research. “I am looking for impact. That is the main thing that drives me,” says Pachamanova, who has applied her expertise in optimization, analytics, machine learning, and simulation to fields as diverse as finance, logistics, and health care.

Pachamanova wants to incorporate her experience working with the Red Cross in a new Babson class she is designing. “I want to introduce students to this kind of experience,” she says, “where you go in, you understand the big problem, but identifying how to start a solution is very hard, and you won’t know where you’ll end up.”

‘I Like Asking Questions and Looking for Answers.’

A company is not an island. Its actions are not secluded. Rather, they ripple outward. A company’s supply chain, its partners, its manufacturing, its customers—all of these relationships, all of these connections, operate within one intertwined system that has an impact on communities and the environment.

The research of Sinan Erzurumlu , professor of innovation and operations management, concerns itself with these systems in which organizations operate. Lying at the intersection of business, society, and the environment, his work focuses on how companies can make decisions that are both sustainable and innovative.

When looking at a company’s actions in his research, Erzurumlu typically asks a direct question: Who does this benefit? “It could benefit a community. It could benefit the planet,” he says. “That perspective drives me a lot.”

The goal is to build a more sustainable future, but talking and researching about sustainability, such an immense, complex, and daunting challenge, is not easy. “I think sustainability is a human mindset problem,” Erzurumlu says. “It’s not just reducing carbon emissions. It’s about changing that mindset. We need to make that transition to a sustainable future. Convincing people to do that is a hard job.”

Large organizations also can’t simply transition into sustainable businesses overnight. Making integral changes is like trying to turn a cargo ship. “It’s a process,” Erzurumlu says. “They can’t make the turn immediately.”

In one recent research article he co-authored, Erzurumlu looked at the systems-thinking approach that three companies—retailers of household products, fashion, and beverages, respectively—took to sustainability. The companies, among other measures, sought to limit the water they used in their operations, reduce the use of hazardous chemicals, and collect waste to recycle and remake into new products.

He hopes other companies can learn from their efforts. He also hopes such research will give his students real-world insights about sustainability. “I think teaching is as important as being a researcher,” he says. “I see the classroom as an outlet for my research. Teaching about my research is an extension of my scholarly identity.”

‘Research Is a Great Opportunity to Better Understand Hard Problems.’

Hospitals are full of caring, smart people striving to deliver the best treatment possible. Helping them with that mission is what Wiljeana Glover tries to achieve in her research. 

To conduct her research, Glover likes to leave her desk and work on site, embedded with those on the front lines of health care. “When I can, I am physically going into hospitals, observing, getting to know clinicians,” says the Stephen C. and Carmella R. Kletjian Foundation Distinguished Professor of Global Healthcare Entrepreneurship. 

“That is fun for me and helps me understand how they do the work they do.”  

Glover often works with hospitals and clinics to understand how they identify and implement improvements, whether a new procedure or innovation. The goal is to make sure that these improvements support patients equitably. Equity in care, for people of color, for women, can remain elusive.  

Clinicians typically see her as a partner. “In some cases, they see me as part of their innovation or improvement team,” Glover says. “They appreciate the insights they are receiving along the way.” 

In a recent research article she co-authored, Glover looked at quality improvement efforts at medical centers and how those organizations can make a sustained commitment to addressing equity. Data measurement, team composition, and the need for ongoing actions were all examined. “How do we not think of equity as a one off?” Glover says. “How do we build in equitable practice? How does it become part of the way we do things?” 

Glover also serves as the founding faculty director of Babson’s Kerry Murphy Healey Center for Health Innovation and Entrepreneurship. In addition to studying equity, the center’s affiliated faculty conducts research on healthcare startups, the impact of artificial intelligence and analytics, and entrepreneurial training for clinicians and scientists. 

Glover praises the spirit of collaboration she sees in her fellow faculty members, who share ideas with one another and work together on research. “It is one of my favorite things about doing research at Babson,” she says. “It really is a part of the secret sauce of research here.”

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The Importance of Nursing Research

Nursing research has a tremendous influence on current and future professional nursing practice, thus rendering it an essential component of the educational process. This article chronicles the learning experiences of two undergraduate nursing students who were provided with the opportunity to become team members in a study funded by the National Institute of Nursing Research. The application process, the various learning opportunities and responsibilities performed by the students, and the benefits and outcomes of the experience are described. The authors hope that by sharing their learning experiences, more students will be given similar opportunities using the strategies presented in this article. Nursing research is critical to the nursing profession and is necessary for continuing advancements that promote optimal nursing care.

Throughout the 21st century, the role of nurse has evolved significantly. Nurses work in a variety of settings, including the hospital, the classroom, the community health department, the business sector, home health care, and the laboratory. Although each role carries different responsibilities, the primary goal of a professional nurse remains the same: to be the client's advocate and provide optimal care on the basis of evidence obtained through research.

Baccalaureate programs in the United States prepare students for entry-level nursing positions. The focus is to care for individuals throughout the human life span. Knowledge is acquired from textbooks, classroom and Web-based instruction, simulation, and clinical experiences. The goal of all programs is for students to graduate as safe, entry-level professionals, having received a well-rounded exposure to the nursing field. Students are exposed to evidence-based nursing practice throughout their curriculum; however, the allocated time for nursing research is often limited. Many programs require only one 3-credit hour course for nursing research. This amount of time is limited, despite the broad spectrum of nursing research and its influence on current and future nursing care.

Research is typically not among the traditional responsibilities of an entry-level nurse. Many nurses are involved in either direct patient care or administrative aspects of health care. Nursing research is a growing field in which individuals within the profession can contribute a variety of skills and experiences to the science of nursing care. There are frequent misconceptions as to what nursing research is. Some individuals do not even know how to begin to define nursing research. According to Polit and Beck (2006) , nursing research is:

systematic inquiry designed to develop knowledge about issues of importance to nurses, including nursing practice, nursing education, and nursing administration. (p. 4)

Nursing research is vital to the practice of professional nursing, and the importance of its inclusion during undergraduate instruction cannot be overemphasized. Only with exposure and experience can students begin to understand the concept and importance of nursing research.

The purpose of this article is to describe undergraduate students’ experiences of becoming aware of and participating in a federally funded research study from the National Institute of Nursing Research. As a part of funding for the study, which was an AREA award ( A cademic R esearch E nhancement A ward, R15 mechanism), there were designated opportunities for student involvement. The primary aim of the research study was to investigate the effects of gene-environment interactions on risk factors of preclinical cardiovascular disease in a cohort of 585 young adults who all had a positive family history of cardiovascular disease (i.e., essential hypertension or premature myocardial infarction at age 55 or younger in one or both biological parents or in one or more grandparents), verified in the medical record. Specific genes examined included cytochrome P-450, family 1, subfamily A, polypeptide 1; cytochrome P-450 2A; glutathione S-transferase mu 1; and glutathione S-transferase theta 1. Cardiovascular-dependent measures were diastolic blood pressure, endothelium-dependent arterial vasodilation, left ventricular mass indexed for body size, systolic blood pressure, and total peripheral resistance. The effects of ethnicity and gender were also explored.

Learning Opportunity

The learning process began with the principal investigator (M.S.T.) of the study visiting the junior class (class of 2007) of baccalaureate students at the Medical College of Georgia. This particular student group was chosen due to their academic standing because they would have the chance to take full advantage of learning directly from a nurse researcher for one full year before graduation. The principal investigator briefly presented and discussed the growing field of nursing research, the advancements made by nursing research, and the critical role of nursing research to nursing practice. The principal investigator also presented an overview of the funded research study and extended an invitation to students to apply for two part-time positions on the grant that were designed specifically for nursing student involvement. Students recognized the excellent opportunity and were intrigued with the future possibilities. They understood this option was unique and appeared to be a great pathway for becoming an active participant in learning the nursing research process through involvement in an official nursing research study.

The principal investigator established objective criteria for the application process. The criteria included writing a maximum 1-page essay sharing the reasons why the students wanted to join the research project as a team member and also sharing their personal and professional goals for involvement in the study. Many students were interested; thus, it was a very competitive process. The principal investigator reviewed the essays and selected approximately 10 prospective individuals for an interview. The interview was an extension of the essay. At the interview, the principal investigator further described the positions, provided a detailed overview of the grant, and had the opportunity to gain a better understanding of the student candidates. The students were encouraged to ask questions to further understand the expectations of the prospective opportunity. The interview also provided the students with increased exposure to the study's goal and more familiarization with the expectations of the funded positions.

After the interview process was completed, two individuals were selected, per the grant specifications. The selected individuals described the interview process as a positive experience that helped solidify their desire to become involved in the research study. The principal investigator emphasized that this job opportunity was designed to be a learning experience in which the students would be guided through the entire research study process and become members of a multidisciplinary team. Time responsibilities for each student included approximately 6 hours per week. The principal investigator communicated clearly that the nursing baccalaureate program was the first priority for the students, and thus provided a flexible work schedule.

Research Study Experience

The students began working in early april 2006. The first step in the work experience included 6 weeks of funded orientation. This was their first exposure to the research process; thus, it was important for the students to be provided with a strong foundation. Orientation included attending a team meeting and being introduced to the members of the multidisciplinary team (i.e., biostatistician, cardiologist, geneticists, nurse researcher, and psychologist, all of whom served as co-investigators, and the genetic laboratory personnel); reviewing the grant application; completing the Collaborative Institutional Training Initiative (CITI) (2000) ; completing the Roche educational program on genetics; and touring the worksite facilities. Reviewing the grant gave the students a better understanding of the specific aims and objectives of the study and the intended procedures of the genetic laboratory work in which the students would be involved. The complexity of the grant required the principal investigator to further explain and clarify specific details. The CITI training, which is required by the institution's Office of Human Research Protection, was completed online and took approximately 5.5 hours. The CITI program was presented in a tutorial format, and satisfactory completion of numerous quizzes was required. The task was tedious and time consuming, but valuable and essential, as it increased the awareness of the established codes of conduct for research. At the conclusion of the CITI training, the students understood the necessary policies and procedures for maintaining security and confidentiality of human subjects, the legal and ethical issues regarding the research process, and the essential procedures for research conduct.

Although the students had a basic understanding of genetics, they completed the Roche Genetics Education Program (2004) to gain a deeper understanding. The program was direct and easy to navigate and was excellent for all learning styles, as it contained both visual and auditory explanations. The explanations covered both basic and complex genetic concepts. Through the use of the genetics program, the students were able to comprehend abstract genetic details and to further understand the importance and influence of genetics on personal health. To conclude the orientation process, students were taught basic laboratory procedures, such as polymerase chain reaction and restrictive enzyme digestion, which were used to perform genotyping for the study. After these procedures had been observed several times, the students were given the opportunity to acquire hands-on experience with these laboratory techniques. Each of these components of the orientation process provided the students with the needed foundation for becoming involved in the research study.

After approximately 2 months of orientation, the students were ready to begin working in the genetics laboratory. One of the primary responsibilities of the students would be to further learn and become confident with genotyping techniques. The laboratory was shared among research personnel of several funded studies, with various research experiments being conducted concurrently. The students, under the supervision of the principal investigator and geneticist (H.Z.), also worked with experienced research assistants to perform the genotyping. The students maintained a daily log describing the laboratory genotyping procedures and experiments, and these logs were reviewed at team meetings. Although the actual procedure for polymerase chain reaction seemed straightforward, the students quickly learned that quality control must be used. Sometimes during genotyping, the DNA samples did not produce results. The students discovered that there are numerous contributing factors to successful polymerase chain reaction, such as quality of DNA templates, primer specifications, temperature settings, gel conditions, pipette measuring accuracy, and general laboratory techniques. Even the slightest error could result in permanent DNA sample loss, major experiment failure, or DNA sample contamination.

The students met with the research team members frequently to discuss and troubleshoot potential solutions and problem solve techniques that would foster improving the success rate and productivity of the genotyping. From the laboratory experience, the students learned that every detail must be considered and addressed precisely and meticulously when conducting experiments. Sometimes the process became frustrating, but the students soon discovered that patience and persistence were the most important attributes for a laboratory researcher to possess. The laboratory experience was an excellent hands-on learning opportunity. The students no longer viewed research as strictly information gathered from a journal or textbook, but rather as a physical act that required extreme concentration, dedication, and determination.

After spending numerous months in the laboratory performing the required genotyping, the students had the opportunity to be exposed to another role of a nurse researcher. They performed literature reviews regarding the study. Although the students had written papers in their nursing school program that required literature citations, they were not familiar with all of the library resources available to them. In no time, the students learned which library and online resources had the most validity and what would be the most relevant to their study. The literature search results provided the students and principal investigator with information on new studies that had been conducted on gene-environment interactions regarding tobacco smoke exposure and cardiovascular disease. From the literature review experience, the students learned the importance of being selective and time efficient. Often when a search was first begun, thousands of articles were listed, but the students learned the importance of narrowing the searches to the specific areas of focus. After the students completed their searches, they met with the principal investigator, who provided direction on the articles identified as the most relevant to the study.

The students continued working with the principal investigator during data review, analysis, and preparation of dissemination of the results (i.e., the publishing process). They helped to prepare an abstract submission of the study presented at an international meeting ( Tingen et al., 2007 ). They also helped with the preparation of manuscripts of the study results. By the conclusion of their work experience, the students will have been exposed to and participated in the entire research process.

Benefits and Outcomes

From the students’ perspectives, this opportunity was extremely beneficial. Prior to this experience, the students were not familiar with nursing research. Their original perception of research was that it was conducted by people with chemistry, biology, biochemistry, and genetic degrees in laboratories at major universities. They now realize that nursing and research can be combined and that optimal nursing care is dependent on the latest research findings. In addition, the students believe this opportunity has been beneficial in learning that nurse researchers are valuable to nurses in other settings. For example, one of the long-term goals of this research study is to develop appropriate interventions for children who are more susceptible to and at risk for the harmful effects of tobacco smoke due to their genetic heritage. The information obtained by a nurse researcher can be disseminated to nurses who work directly with the individuals to whom the research applies. Practice that has shown to be effective through research allows nurses to better advocate for patients and provide the best possible care. Although the majority of nurses who provide patient care will be consumers of nursing research, implementing evidence-based nursing practice is crucial to provide optimal nursing care. Information from nursing research has the potential to directly impact the care provided to patients in all health care settings.

Now that the students have had the opportunity to become more familiar with nursing research through involvement as team members, they recognize that their future professional possibilities are endless. Nursing research is an emerging and growing field in which individuals can apply their nursing education to discover new advancements that promote evidence-based care. They learned the research process and the important roles that each team member plays during the study phases of conception, design, implementation, analysis, and dissemination. Each aspect of the research process is important and contributes to the overall success of the study.

The students also discovered the benefit of trying new things. Prior to this experience, they had little exposure to the research process and nursing research. Consequently, they had to be receptive to learning and recognize that acquiring new knowledge was a gradual process. At times, the students felt anxious because all aspects were new, but they realized that without trying, they would never advance and feel comfortable with the research process. As the students reflected, they thought this was an excellent growing experience professionally, scholastically, and personally. In addition, this opportunity benefited the students’ peers through discussions and their sharing of work responsibilities, the research process, and the importance of evidence-based practice. As future nurses, the students are strong proponents of nursing research, and this experience has also broadened their horizons regarding future professional growth and opportunities. In addition, they have a better understanding of the importance of scientific evidence to support their clinical practice. As a result, the students thought that a stronger emphasis should be placed on nursing research in undergraduate baccalaureate education and that more students should have the opportunity to participate as team members in nursing research studies.

The students were almost one full year into nursing school and thought they had learned about all of the possibilities for their futures when they were first presented with this learning opportunity. They knew their future options were numerous and included working in acute care and community settings. They also realized they could further their education and pursue graduate degrees to include a master's degree and become an administrator, educator, clinical nurse specialist, nurse anesthetist, or nurse practitioner, or potentially pursue a doctorate. They did not know there was an emerging and growing field in which their nursing education could be applied and furthered—the area of research and the role of becoming a nurse researcher. Prior to this experience, students perceived their possibilities for a professional career in nursing were tremendous. Now by being involved in the entire process of conducting a federally funded research study, they realized their future professional possibilities are limitless.

The authors of this paper hope that by sharing their experience, they will encourage both nursing faculty and nursing students to not only introduce the research process into the nursing curriculum, but also to consider making nursing research a tangible and more integrated process. They think that a more beneficial approach to the introduction of research may be achieved through incorporating research-related content into each nursing course throughout the educational process. This could be conducted in addition to the current curriculum plan of many schools of nursing that require a single and concentrated 3-hour research course with a goal of research becoming a positive experience for students that is enthusiastically received as a new learning opportunity. In addition, students who are involved as team members in a funded research study may be provided with scheduled classroom opportunities for making progress reports to their peers. Also, the students could field questions regarding the research project and their experiences. These activities may foster increased learning and interest about research among the students’ classmates.

As nursing students are the future members of the nursing profession, and for the profession to continue to advance, nursing research must be the foundation of comprehensive, evidence-based clinical practice. This may only occur with increased exposure to nursing research. Therefore, it is critical that the future members of the nursing profession be exposed to, develop an appreciation for, and become more involved in nursing research, and thus incorporate its outcomes into the delivery of optimal professional nursing practice.

Acknowledgments

The lead author was awarded a grant (NR008871) from the National Institutes of Health, National Institute of Nursing Research.

• Collaborative Institutional Training Initiative [April 14, 2006]; Office of Human Research Protection. The Medical College of Georgia. 2000 from http://www.mcg.edu/Research/ohrp/training/citi.html .
• Polit DF, Beck CT. Essentials of nursing research: Methods, appraisal, and utilization. 6th ed. Lippincott Williams & Wilkins; Philadelphia: 2006. [ Google Scholar ]
• Roche Genetics Education Program [May 10, 2006]; Education. 2004 from http://www.roche.com/research_and_development_r_d_overview/education.htm .
• Tingen MS, Ludwig DA, Dong Y, Zhu H, Andrews JO, Burnett AH, et al. Tobacco smoke exposure and genetics: Youth at risk for cardiovascular disease.. Proceedings of the 13th Annual Meeting of the Society for Research on Nicotine and Tobacco.2007. p. 39. [ Google Scholar ]