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59 Cards in this Set

  • Front
  • Back

concept

abstraction used to describe characteristics of a phenomenon, group, or individual based on a set of criteria or qualities

measure

a procedure for determining whether or to what degree a concept applies to specific cases based on observation of those cases

yardstick

specific measure that depends on why you want to measure something (causal logic?)

absolute measure

measure that uses measurement units and does not include a comparison

relative measure

measures that consist of a comparison of cases with one another

categorical

measures that place cases into discrete groups based on whether characteristics are present or absent

continuous

measures that place cases along a specctrum from more to less (equal distance between consecutive levels)

binay

categorical variable with just two categories

multichotomous

placing attributes, properties, or behaviour into a pre-defined list of more than two categories

ordinal

categories have a natural order distances between categories is not always the same

types of categorical measures

binary and multichotomous

types of multichotomous measures

nominal and ordinal

nominal

categories have no intrinsic order

bias

systematic error produced when our measurement procedure produces scores that are either too high or too low

measurement error

measurement value differs from true value

upward bias

overestimation or overstatement by a statistical measure of the event it is attempting to describe

downward bias

underestimation or understatement by a statistical measure of the event it is attempting to describe

sources of bias

researcher subjectivity, gaps between concepts and measurements, obstacles to observation

researcher subjectivity

researcher may apply different yardsticks to different cases taking into factors outside the concept

hawthorne effects

individuals may behave differently when observed in a research setting

difficulty of observation in the social world

social norms, strategic action, incentives to hide info, hawthorne effects

experimental blindnesss

subjects do not know they are being observed (tackles the hawthorne effect)

population

full set of cases we're interested in learning about

sample

the subset of the population that we actually take measures of

random sampling

selecting cases from the population in a manner that gives every case an equal probability of being chosen

law of large numbers

as a random process is repeated an increasing number of times, the values generated will converge on the true value of the underlying process

validity

the degree of fit between a measure and the concept it is intended to measure (how well a measure captures the concept)

reliability

how consistently a measurement procedure produces the same result when the procedure is repeated

threats to validity

measure does not cover enough of concept, covers outside of the concept, captures different things in different units

threats to reliability

subject to researcher subjectivity/interpretation, instability over time

causal theory

a set of general claims about the cause or the effect of a class of phenomenon

hypothesis

statement on what you should expect to see if your causal claim is true (includes in/dependant variables)

variables

a measurable property of a phenomenon that can potentially take on different values

independent variable

cause

dependent variable

effect/outcome

operationalization

rationalizing an abstract theory into a concrete variables for hypothesis

unit of analysis

a description of the type of cases you will study for your analysis

comparative method/ method of difference

analysis of two cases that are similar in all aspects except take on different x (independent) value to see x's effect on y (if x is present is y?)

correlation

Arelationship across cases between the values that two variables (X and Y) takeon.

postive correlation

cases with higher x values have higher y values

negative correlation

cases with higher x values have lower y values

why correlation may not mean causation (3)

spurious relationships(z), randomness, reverse causation

third "z" variable

third variable not taken into consideration that is a cause of C AND E that creates a correlation

spuriousness

a correlation between twovariables that is not a result of a causal relationship between these twovariables

intervening variable

third variable that influences x's effect on y (not spurious=step in causal logic)

antecedent variable

variable comes before the independent variable in the causal logic and influences x

spurious antecedent variable

variable that comes before x but isindependently related to the dependent variable

How do you control for more than one z variable?

multiple regression analysis

multiple regression analysis

examine correlation holding all z's constant

how to test if a correlation is spurious

random assignment, multiple regression analysis, comparative method

random assignment

procedure for assigning x to cases that ensures that the difference in the value of the z


proven not spurious by law of large numbers affirmation of z to be irrelevant

reverse causation

correlation between x and y could arise because y is a cause of x

random correlation

correlation observed purely by chance (patterns are favourable to us)

how to avoid being fooled by random correlation

statistics: use probability to tell us the likelihood of chance, compute how closely correlated the variables are, take into account amount of cases

when are correlations more likely to be real not random?

when the correlation is stronger/steeper and holds across more cases (law of large numbers)

statistical significance

indicator of how likely it is that correlation is random, higher=less likely

p-value

indicates the probability that the observed correlation was due to chance
0.1=10% chance

process tracing

method for assessing whether c is a cause of e that moves beyond the logic of correlation based on clues to support a causal logic

social science vs natural science

social: more abstract, less quantifiable, concepts harder to measure, fewer opportunities for random assignment/variable control bc dealing with human beings and the world