Chap 2 lesson 1 Flashcards

1
Q

, literally “good spirited,” is a term coined by renowned Greek philosopher
Aristotle (385-323 BC to describe the pinnacle of happiness that is attainable by humans.

A

Eudaimonia

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2
Q

Who describe the pinnacle of happiness that is attainable by humans.

A

Aristotle

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3
Q

This has often been translated into “human flourishing” in literature, arguably likening
humans to flowers achieving their full bloom.

A

Eudaimonia

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4
Q

As discussed in the Nicomachean Ethics,
Aristotle’s human flourishing arises as a result of
different components such as ——.

A

friendship, wealth, and power

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5
Q

It has been observed that Western civilization
tends to be more focused on the ——

A

individual,

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6
Q

Eastern are more—-

A

community-centric

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7
Q

—-, on the other hand, aims for eudaimonia as the ultimate good.

A

The Greek Aristotelian
view

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8
Q

—– allowed people full access to cultures that as a result,
very few can maintain their original philosophies.

A

Flourishing borders

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9
Q

Science as Method or how to do science:

A

Observation:
Question:
Hypothesis:
Prediction:
Experimentation:
Analysis:
Conclusion:
Peer Review and Publication:

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10
Q

This is the initial stage where scientists observe a phenomenon or event
in the natural world. Observations can be made through direct sensory experiences or
through instruments and tools designed to detect specific phenomena.

A

Observation:

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11
Q

Based on observations, scientists formulate questions or hypotheses about
the phenomenon they are observing. These questions should be specific, testable, and
ideally lead to predictions.

A

Question:

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12
Q

is a tentative explanation for the observed phenomenon. It is
a statement that can be tested through experimentation or further observation. A good
hypothesis is based on prior knowledge and is falsifiable, meaning it can be proven false
through experimentation.

A

Hypothesis: A hypothesis

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13
Q

Scientists use the hypothesis to make predictions about the outcome of
experiments or further observations. Predictions are logical consequences of the
hypothesis and can be tested through experimentation or additional data collection.

A

Prediction:

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14
Q

This step involves designing and conducting experiments to test the
predictions derived from the hypothesis. Experiments should be carefully planned to
control variables, eliminate bias, and ensure reproducibility. Data is collected during the
experiment and analyzed to determine if it supports or refutes the hypothesis.

A

Experimentation:

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15
Q

The data collected from experiments are analyzed using statistical and other
analytical methods to determine if the results support the hypothesis. Data analysis
involves identifying patterns, trends, and relationships in the data.

A

Analysis:

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16
Q

Based on the analysis of the data, scientists draw conclusions about the
hypothesis. If the data supports the hypothesis, it may be accepted as a plausible
explanation for the observed phenomenon. If the data does not support the hypothesis, it
may be rejected or modified, and new hypotheses may be formulated.

A

Conclusion:

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17
Q

The final step involves sharing the results of the study
with the scientific community through peer-reviewed publications or presentations at
conferences. Peer review ensures that the study’s methods, results, and conclusions are
rigorously evaluated by other experts in the field before being accepted as valid scientific
knowledge.

A

Peer Review and Publication:

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18
Q

Verification theory, also known as the —-

A

verification principle

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19
Q

is a philosophical principle
associated with logical positivism and the Vienna Circle.

A

Verification theory,

20
Q

It suggests that a statement or
proposition is meaningful only if it can be empirically verified or confirmed through direct
observation or logical analysis. According to this theory, statements that cannot be verified
empirically or logically are considered meaningless.

A

Verification theory,

21
Q

Falsification theory, associated with the philosopher —,

A

Karl Popper

22
Q

is a criterion of
demarcation used to distinguish scientific theories from non-scientific ones.

A

Falsification theory

23
Q

According to him scientific theories should be falsifiable, meaning they should make specific
predictions that can potentially be proven false through empirical observation or
experimentation. In other words, scientific theories must be capable of being tested and
possibly disproven.

A

Karl Popper

24
Q

it emphasizes the importance of testing theories through attempts to
disprove them rather than seeking confirmation, as confirming instances alone cannot
verify the validity of a theory.

A

Falsification theory

25
It emphasizes the collaborative and communal aspects of scientific inquiry, recognizing that scientific progress is not solely the work of individuals, but rather a collective effort that involves various stakeholders, including scientists, policymakers, educators, and the public.
"Science as a Social Endeavor"
26
"Science as a Social Endeavor" involves:
Collaboration: Communication: Ethical considerations: Public engagement:
27
Scientists often work together across disciplines and institutions to tackle complex problems that require diverse expertise and perspectives
Collaboration:
28
Effective communication of scientific findings to both specialized audiences and the general public is essential for informed decision-making and societal engagement with science.
Communication:
29
Scientists must consider the ethical implications of their research, including issues related to human subjects, environmental impact, and broader societal implications.
Ethical considerations:
30
Engaging with the public fosters a greater understanding of science and its role in society, promotes scientific literacy, and builds trust between scientists and the communities they serve.
Public engagement:
31
it underscores the importance of inclusivity, transparency, and accountability in scientific practice, ultimately enhancing the relevance and impact of scientific research on society.
Science as a social endeavor
32
This explores the perception of science and its ability to produce results, comparing it to other belief systems and disciplines like religion, luck, and human randomness.
Science and Results
33
People who may not fully understand science are still impressed by its ability to produce tangible outcomes or results. It draws a parallel with how Jesus performed miracles and gained followers, indicating that the effectiveness of science in producing results can captivate individuals, even if they don't comprehend the underlying principles completely
Capacity to Produce Results:
34
While science is recognized for its ability to produce results, it acknowledges that it is not the only discipline capable of doing so. It mentions religion, luck, and human randomness as alternative belief systems that also yield outcomes, even though they operate differently from scientific methods.
Science versus Other Disciplines:
35
communities without access to scientific knowledge may resort to practices like divination and superstition, which can still yield outcomes or results, albeit through different means.
Diverse Approaches to Results:
36
Despite its efficacy, the acknowledges that science is not infallible and cannot guarantee 100% accuracy. It uses weather reports as an example to illustrate the limitations of scientific predictions, particularly in foreseeing natural disasters.
Fallibility of Science:
37
In the face of unpredictable events like disasters, it suggests that the best course of action is to reinforce materials and infrastructure to withstand calamities and to focus on restoration efforts post-impact.
Adaptation and Response:
38
it concludes by asserting that science does not have a monopoly on the claim for definite results. While it is a powerful tool for understanding the world, other disciplines and belief systems also offer pathways to outcomes and understanding, albeit through different lenses and methodologies.
Conclusion on Definite Results:
39
(MDG).
Millennium Development Goals
40
The Millennium Development Goals (MDGs), signed by world leaders in 2000. One of the goals emphasizes the need for a global partnership for development.
Background on MDGs:
41
One of the goals emphasizes the need for a global partnership for development.
MDGs
42
Economists often equate growth with development and prioritize it as the primary indicator of progress. They allocate significant resources to achieve economic growth, often leveraging technology, machinery, and labor.
Economic Growth as a Goal:
43
highlights the limitations of pursuing growth as the sole measure of development. It argues that growth creates an illusion of sustainability, as the Earth's finite resources cannot sustain endless expansion. Moreover, growth itself is not limitless and may eventually lead to diminishing returns.
Limits of Growth:
44
It proposed by Joseph Hickel. It suggests that developed countries should consider scaling back their pursuit of growth to avoid overexploitation of resources and irreversible damage to the environment.
Concept of "De-development":
45
The concept of "de-development," is proposed by
Joseph Hickel.
46
The adverse consequences of rapid technological growth on the environment. It warns that the current pace of growth is unsustainable and contributes to man-made climate change, which threatens biodiversity and could lead to mass extinction
Environmental Impact:
47
Finally, warns that if current trends continue, humans may face the risk of extinction due to the ecological damage caused by unchecked growth and exploitation of natural resources.
Potential Extinction: