Something About Science and a Lot Concerning Being a Scientist Essay Example

is a vast amount of potential for development within skills and ideas, ranging from fundamental theories that may later be proven wrong. Science encompasses numerous different areas, allowing for a variety of approaches to research and improvement. Defining knowledge is a challenging task with countless possible explanations. Personally, I view knowledge as a justified true belief, verified through experimentation or logical reasoning. It is imperative that knowledge remains objective and consistently accurate (Griethuijsen, 2018). Consequently, it can be inferred that science and knowledge are interchangeable terms, given that science strives for objectivity and pursuit of truth. Nevertheless, what is currently regarded as truth today may ultimately prove false in the future due to ongoing scientific advancements and discoveries.

Science has a long-term objective of advancing towards the most unfathomable knowledge that will remain true indefinitely. However, investigating certain aspects in the natural sciences proves challenging as we are unable to directly interact with entities such as photons or specific T-cells. Consequently, acquiring information requires continuous critical thinking and innovative idea development. The scientific community represents a significant barrier within the realm of science, thus it is crucial to remain an active participant within it.

Scientists share the objective of pursuing scientific excellence and ongoing progress. They understand that there will always be new inquiries to explore and discoveries to exchange, acknowledging that science has no limits in terms of advancement. Collaboration and optimism are vital in driving scientific breakthroughs. It is important to recognize that not all answers can be found, highlighting the significance of continuous exploration.

Science, despite its potential for solving all problems, is influenced by the social context in which it exists. Instead of working

in isolation, scientists collaborate and communicate with others and the world. This ongoing cooperation drives the progress and evolution of science. The collective knowledge shared among scientists forms the foundation of scientific understanding. I am thrilled to be a part of the scientific community and contribute to the advancement of knowledge. It is crucial to actively engage within this community to foster groundbreaking discoveries that can benefit everyone.

My goal is to make science more accessible and beneficial to a wider range of people, with the aim of generating valuable discoveries and improving future generations' lives. Collaboration will be crucial in advancing our world and enabling individuals to pursue their ambitions. Nevertheless, it is essential that we maintain ethical standards when exploring new ideas.

Ethics is an essential part of human nature and must be taken into account in all research endeavors. It plays a crucial role in shaping our future, defining our identity, and guiding our choices and actions. As John Berger once stated, "Without ethics, man has no future. This is to say, mankind without them cannot be itself." Ethics acts as a compass for scientists, helping them distinguish right from wrong based on established norms within the scientific community. It encompasses their responsibility towards their actions and methods employed, as well as considering potential consequences of new inventions or experiments. The ultimate goal of ethics is to assess whether a particular research can be integrated into society without disrupting core concepts and norms or causing harmful effects that could endanger humanity.

The primary objective of scientists is to actively engage in scientific activities such as projects, research, and investigations. However, these activities are not simple

due to several reasons. One major reason is that scientists are constantly involved in improving existing things or developing new ones. Although some may perceive this as easy, a closer examination reveals that it requires significant time and effort to create and conduct quality studies or experiments.

Research and experiments can sometimes span months or even years (Watson, 1968). However, despite the lengthy duration, scientists must persist in their quest for new discoveries. In the realm of natural science, two fundamental pillars exist: hypothesis formulation (which may evolve into theories) and experimental procedures (including methodologies). These stages are crucial for gathering data, analyzing it, and confirming or refuting the initial hypothesis. Science goes beyond mere ideas and proposals; it encompasses tangible actions.

Science involves following the scientific method, using logical reasoning, and conducting experiments to gain reliable knowledge. There are different ways of formulating hypotheses, with the most commonly used one based on our sense perception. It's important to note that in science, what may appear simple can actually be complex and comprehensive. I want to focus on the block-formulation of hypotheses, as explained by scientist and philosopher Karl Popper. According to Popper, a theory that cannot be refuted by any possible event is considered non-scientific. If a theory is not potentially falsifiable, it cannot be seen as scientific and falls into a different realm.

From the given example, it can be stated that disagreement plays a crucial role in the field of natural sciences. To illustrate this, let us consider the emission theory of sight, which emerged in ancient times. During that period, scientists formed their hypotheses and ideas solely based on sensory perception. In accordance with

this, a theory was proposed suggesting the existence of fire within the human eye. This theory was supported by several factors, such as:

Observing the emergence of light spots when pressure is applied to the eyes confirms a physical phenomenon, which has gained support from numerous scientists who believe in its validity.

In the 13th century, renowned scientists like Euclid faced dismissal despite their significant contributions to geometry and explanation of the limitations of our vision. This dismissal occurred when the works of Ibn al-Haytham, a 10th-century Islamic scholar, gained global recognition. These works provided evidence contradicting Euclid's theory on direct sun-gazing (Lorch). Nonetheless, Ibn al-Haytham introduced his own revolutionary understanding in the field of vision. On a different note, not all scientific advancements result from disagreements. The discovery of electromagnetic waves serves as an example of how experimentation and theory can interact.

Physicist Maxwell made a surprising discovery by revealing the connection between electricity and magnetism. His research demonstrated that electric fields can be created by alternating magnetic fields, and vice versa. This revelation led to the understanding that these oscillating fields have the ability to separate from conductors and travel through empty space at an incredibly fast pace.

The velocity was calculated to be around 300,000 kilometers per second, which amazed scientists at the time. Faraday himself was surprised and even frightened by the powerful mathematics used in this calculation, but later realized its correctness (Domb, 2018). Despite challenging established beliefs about wave propagation, Maxwell's revelation of the speed of light and electromagnetic waves aligning was considered a significant discovery. Unfortunately, Maxwell passed away before he could experimentally confirm his calculations. However, Henry Hertz's experiments fervently supported

Maxwell's theories and ultimately confirmed their accuracy.

Furthermore, he not only conducted experimental verification of the existence of electromagnetic waves but also examined their principal characteristics. To me, innovation involves being a frontrunner in the marketplace. It entails becoming imaginative and not remaining complacent, continually progressing. Innovation, to me, means staying ahead of the competition.

The phrase "Being uncompromising. Bringing to the humanity versatility." is a principle I aim to uphold throughout my life. My goal is to innovate medical technologies that contribute to the well-being and diagnosis of individuals. Specifically, I wish to develop groundbreaking advancements for individuals who rely on life-saving equipment, such as cardiac pacemakers, or for those who may face limb loss due to various circumstances.

Moreover, I aspire to provide individuals unable to walk the sense of boundless potential. Additionally, my goal is to ensure affordability of these technologies for all, delivering something revolutionary and genuinely beneficial for humanity. Thus, I aim to become a dedicated and uncompromising scientist.