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1. Methodological Aspects

Total questions: 103

Worksheet time: 52mins

Name
Class
Date
1.
  1. Statement that tells you the purpose of the investigation but does not predict an outcome. 

a)
  1. Aim

b)
  1. Hypothesis

c)
  1. Directional Hypothesis

d)
  1. Non-directional Hypothesis

e)
  1. Null Hypothesis

2.
  1. Predictions that the researcher makes about what they will find.

a)
  1. Aim

b)
  1. Hypothesis

c)
  1. Directional Hypothesis

d)
  1. Non-directional Hypothesis

e)
  1. Null Hypothesis

3.
  1. Statement predicting the direction of a relationship between variables.

a)
  1. Aim

b)
  1. Hypothesis

c)
  1. Directional Hypothesis

d)
  1. Non-directional Hypothesis

e)
  1. Null Hypothesis

4.
  1. Statement predicting only that one variable will be related to the other, not the direction of the relationship.

a)
  1. Aim

b)
  1. Hypothesis

c)
  1. Directional Hypothesis

d)
  1. Non-directional Hypothesis

e)
  1. Null Hypothesis

5.
  1. Statement stating that any difference or correlation in the results is due to chance.

a)
  1. Aim

b)
  1. Hypothesis

c)
  1. Directional Hypothesis

d)
  1. Non-directional Hypothesis

e)
  1. Null Hypothesis

6.
  1. Another name directional hypothesis

a)
  1. One-tailed hypothesis

b)
  1. Two-tailed hypothesis

c)
  1. Three-tailed hypothesis

d)
  1. Four-tailed hypothesis

7.
  1. Another name for non-directional hypothesis

a)
  1. One-tailed hypothesis

b)
  1. Two-tailed hypothesis

c)
  1. Three-tailed hypothesis

d)
  1. Four-tailed hypothesis

8.
  1. This study seeks to explore how doodling in class affects students' scores on their final exam.

a)
  1. Sample of an aim

b)
  1. Sample of a directional hypothesis

c)
  1. Sample of a non-directional hypothesis

d)
  1. Sample of a null hypothesis

9.
  1. Students who doodle during class will score higher on the final exam compared to students who do not doodle.

a)
  1. Sample of an aim

b)
  1. Sample of a directional hypothesis

c)
  1. Sample of a non-directional hypothesis

d)
  1. Sample of a null hypothesis

10.
  1. There will be a difference in final exam scores between students who doodle during class and students who do not doodle.

a)
  1. Sample of an aim

b)
  1. Sample of a directional hypothesis

c)
  1. Sample of a non-directional hypothesis

d)
  1. Sample of a null hypothesis

11.
  1. Doodling during class will have no effect on students' final exam scores, showing no difference compared to students who do not doodle. 

a)
  1. Sample of an aim

b)
  1. Sample of a directional hypothesis

c)
  1. Sample of a non-directional hypothesis

d)
  1. Sample of a null hypothesis

12.
  1. Variable that the researcher manipulates to see what effects it has on the dependent variable (e.g. doodle vs. non-doodling)

a)
  1. Independent Variable

b)
  1. Dependent Variable

c)
  1. Operationalization

d)
  1. Validity

13.
  1. Variable that the researcher is measuring (e.g. final exam).

a)
  1. Independent Variable

b)
  1. Dependent Variable

c)
  1. Operationalization

d)
  1. Validity

14.
  1. The process of defining exactly how you will measure and/or manipulate the variables in a study.

a)
  1. Independent Variable

b)
  1. Dependent Variable

c)
  1. Operationalization

d)
  1. Validity

15.
  1. The extent to which the researcher is measuring what they think they are measuring.

a)
  1. Independent Variable

b)
  1. Dependent Variable

c)
  1. Operationalization

d)
  1. Validity

16.
  1. A different group of participants is used for each IV level (e.g. one group will doodle and the other one will not). 

a)
  1. Independent Measures Design

b)
  1. Repeated Measures Design

c)
  1. Matched-Pair Design

17.
  1.  Participants perform at every IV level (e.g. Participants will both doodle and then switch to not doodling).

a)
  1. Independent Measures Design

b)
  1. Repeated Measures Design

c)
  1. Matched-Pair Design

18.
  1. Participants are arranged in pairs. Each pair is similar in important ways to the study, and one member performs at a different level of the IV (e.g. Two boys with similar IQs are divided into doodling and non-doodling).

a)
  1. Independent Measures Design

b)
  1. Repeated Measures Design

c)
  1. Matched-Pair Design

19.
  1. There are no order effects as participants take part in only one condition (e.g. fatigue, boredom, or practice effect). 

a)
  1. Strength of Independent Measures Design

b)
  1. Strength of Repeated Measures Design

c)
  1. Strength of Matched-Pair Design

20.
  1. Less chances of demand characteristics as participants are less likely to guess the aim of the study. 

a)
  1. Strength of Independent Measures Design

b)
  1. Strength of Repeated Measures Design

c)
  1. Strength of Matched-Pair Design

21.
  1. Participant variables are controlled as the same people do both conditions. 

a)
  1. Strength of Independent Measures Design

b)
  1. Strength of Repeated Measures Design

c)
  1. Strength of Matched-Pair Design

22.
  1. Fewer participants are needed, which is useful if samples are limited. 

a)
  1. Strength of Independent Measures Design

b)
  1. Strength of Repeated Measures Design

c)
  1. Strength of Matched-Pair Design

23.
  1. Participant variables are controlled.

a)
  1. Strength of Independent Measures Design

b)
  1. Strength of Repeated Measures Design

c)
  1. Strength of Matched-Pair Design

24.
  1. There are no problems with order effects.

a)
  1. Strength of Independent Measures Design

b)
  1. Strength of Repeated Measures Design

c)
  1. Strength of Matched-Pair Design

25.
  1. More participants are needed to gather data.

a)
  1. Weakness of Independent Measures Design

b)
  1. Weakness of Repeated Measures Design

c)
  1. Weakness of Matched-Pair Design

26.
  1. There is no control for participant variables. For example, participants in one group may be naturally better at the task given.

a)
  1. Weakness of Independent Measures Design

b)
  1. Weakness of Repeated Measures Design

c)
  1. Weakness of Matched-Pair Design

27.
  1. Order effect can occur. Chances of demand characteristics are increased.

a)
  1. Weakness of Independent Measures Design

b)
  1. Weakness of Repeated Measures Design

c)
  1. Weakness of Matched-Pair Design

28.
  1. It is questionable whether all relevant variables can be matched. 

a)
  1. Weakness of Independent Measures Design

b)
  1. Weakness of Repeated Measures Design

c)
  1. Weakness of Matched-Pair Design

29.
  1. It can be difficult (and time-consuming) to find and match participants.

a)
  1. Weakness of Independent Measures Design

b)
  1. Weakness of Repeated Measures Design

c)
  1. Weakness of Matched-Pair Design

30.
  1. Random Allocation: Participants are randomly distributed to each level of the IV to reduce the effect of individual differences (which is a confounding variable) affecting the study’s results. This can be done by tossing a coin or allowing a computer to allocate groups.

a)
  1. Solution to Independent Measures Design

b)
  1. Solution to Repeated Measures Design

c)
  1. Solution to Matched-Pair Design

31.
  1. Counterbalance: Each condition is tested first in equal amounts. So half the participants first experience condition A and then condition B, while the other half of participants first experience condition B and then condition A.

a)
  1. Solution to Independent Measures Design

b)
  1. Solution to Repeated Measures Design

c)
  1. Solution to Matched-Pair Design

32.
  1. If possible, recruit a large sample in order to create the matched pairs, one of which will be allocated to each group.

a)
  1. Solution to Independent Measures Design

b)
  1. Solution to Repeated Measures Design

c)
  1. Solution to Matched-Pair Design

33.
  1. Ensure that any changes to the dependent variable are due to the manipulation of the independent variable.

a)
  1. Controls

b)
  1. Participant Variables

c)
  1. Situational Variables

d)
  1. Standardized Procedures

e)
  1. Uncontrolled Variables

34.
  1. Individual characteristics that affect how a person behaves in a study and can affect the validity of an experiment if they vary systematically with the independent variable. 

a)
  1. Controls

b)
  1. Participant Variables

c)
  1. Situational Variables

d)
  1. Standardized Procedures

e)
  1. Uncontrolled Variables

35.
  1. Features of the environment that affect how a person behaves in a study and can affect the validity of an experiment if they vary systematically with the independent variable.

a)
  1. Controls

b)
  1. Participant Variables

c)
  1. Situational Variables

d)
  1. Standardized Procedures

e)
  1. Uncontrolled Variables

36.
  1. The procedure is consistent/the same for every participant so the study can be replicated and tested for reliability. 

a)
  1. Controls

b)
  1. Participant Variables

c)
  1. Situational Variables

d)
  1. Standardized Procedures

e)
  1. Uncontrolled Variables

37.
  1. Factors which may affect the study’s validity. A variable other than the independent variable that might skew the results.

a)
  1. Controls

b)
  1. Participant Variables

c)
  1. Situational Variables

d)
  1. Standardized Procedures

e)
  1. Uncontrolled Variables

38.
  1. Describes human behavior and experience using numbers and statistical analysis. It is objective as it can be measured. 

    1. Quantitative Data

    2. Qualitative Data

a)
  1. Quantitative Data

b)
  1. Qualitative Data

39.
  1. Deals with descriptive, in-depth detail of behavior and experience. It is subjective as it cannot be measured.

a)
  1. Quantitative Data

b)
  1. Qualitative Data

40.
  1. A score recorded for each participant, the time taken to complete a task. 

a)
  1. Quantitative Data

b)
  1. Qualitative Data

41.
  1. Descriptions of events, quotes from participants, descriptions of responses to a task. 

a)
  1. Quantitative Data

b)
  1. Qualitative Data

42.
  1. Scores can be compared. Results can be compared if the study is replicated.

a)
  1. Strength of Quantitative Data

b)
  1. Strength of Qualitative Data

c)
  1. Weakness of Quantitative Data

d)
  1. Weakness of Qualitative Data

43.
  1. Numbers and statistics are more objective and less prone to research bias.

a)
  1. Strength of Quantitative Data

b)
  1. Strength of Qualitative Data

c)
  1. Weakness of Quantitative Data

d)
  1. Weakness of Qualitative Data

44.
  1. It is more scientific as statistical tests can be conducted.

a)
  1. Strength of Quantitative Data

b)
  1. Strength of Qualitative Data

c)
  1. Weakness of Quantitative Data

d)
  1. Weakness of Qualitative Data

45.
  1. It does not always allow us to understand what a participant is thinking or feeling.

a)
  1. Strength of Quantitative Data

b)
  1. Strength of Qualitative Data

c)
  1. Weakness of Quantitative Data

d)
  1. Weakness of Qualitative Data

46.
  1. Scales may limit how participants can respond, reducing validity. 

a)
  1. Strength of Quantitative Data

b)
  1. Strength of Qualitative Data

c)
  1. Weakness of Quantitative Data

d)
  1. Weakness of Qualitative Data

47.
  1. It reduces behavior to a single number, failing to find out why a participant has behaved a particular way. 

a)
  1. Strength of Quantitative Data

b)
  1. Strength of Qualitative Data

c)
  1. Weakness of Quantitative Data

d)
  1. Weakness of Qualitative Data

48.
  1. Data provides an in-depth understanding of the thoughts and feelings of participants. 

a)
  1. Strength of Quantitative Data

b)
  1. Strength of Qualitative Data

c)
  1. Weakness of Quantitative Data

d)
  1. Weakness of Qualitative Data

49.
  1. Data can be rich in detail and insightful, so not reductionist. 

a)
  1. Strength of Quantitative Data

b)
  1. Strength of Qualitative Data

c)
  1. Weakness of Quantitative Data

d)
  1. Weakness of Qualitative Data

50.
  1. Researchers can gain an understanding of why people behave in a particular way. 

a)
  1. Strength of Quantitative Data

b)
  1. Strength of Qualitative Data

c)
  1. Weakness of Quantitative Data

d)
  1. Weakness of Qualitative Data

51.
  1. Analysis is prone to researcher bias as the interpretation is more subjective.

a)
  1. Strength of Quantitative Data

b)
  1. Strength of Qualitative Data

c)
  1. Weakness of Quantitative Data

d)
  1. Weakness of Qualitative Data

52.
  1. Statistical analysis cannot be made, so it is less scientific. 

a)
  1. Strength of Quantitative Data

b)
  1. Strength of Qualitative Data

c)
  1. Weakness of Quantitative Data

d)
  1. Weakness of Qualitative Data

53.
  1. Studies are harder to replicate so findings can be less reliable. 

a)
  1. Strength of Quantitative Data

b)
  1. Strength of Qualitative Data

c)
  1. Weakness of Quantitative Data

d)
  1. Weakness of Qualitative Data

54.
  1. Selecting those available at the time of research.

a)
  1. Opportunity Sampling Technique

b)
  1. Random Sampling Technique

c)
  1. Volunteer Sampling Technique

55.
  1. Each participant is randomly selected from the target population. Every member of the group has an equal chance of being selected (e.g. the names of every member of the group is put in a hat and the required number of names is picked out.

a)
  1. Opportunity Sampling Technique

b)
  1. Random Sampling Technique

c)
  1. Volunteer Sampling Technique

56.
  1. Asking for volunteers to take part in research through advertisements. 

a)
  1. Opportunity Sampling Technique

b)
  1. Random Sampling Technique

c)
  1. Volunteer Sampling Technique

57.
  1. A large sample can be obtained quickly and without much effort.

a)
  1. Strength of Opportunity Sampling Technique

b)
  1. Strength of Random Sampling Technique

c)
  1. Strength of Volunteer Sampling Technique

58.
  1. More likely to be representative.

a)
  1. Strength of Opportunity Sampling Technique

b)
  1. Strength of Random Sampling Technique

c)
  1. Strength of Volunteer Sampling Technique

59.
  1. People are more likely to participate if they have already volunteered so the drop-out rate should be lower, making generalizations potentially stronger. 

a)
  1. Strength of Opportunity Sampling Technique

b)
  1. Strength of Random Sampling Technique

c)
  1. Strength of Volunteer Sampling Technique

60.
  1. A researcher may choose people who look suitable and therefore bias the sample (similar characteristics).

a)
  1. Weakness of Opportunity Sampling Technique

b)
  1. Weakness of Random Sampling Technique

c)
  1. Weakness of Volunteer Sampling Technique

61.
  1. Some of the people picked may not want to take part and will need replacing.

a)
  1. Weakness of Opportunity Sampling Technique

b)
  1. Weakness of Random Sampling Technique

c)
  1. Weakness of Volunteer Sampling Technique

62.
  1. People may not see the advert or make time to reply, or they may just ignore it. Those who do volunteer may be different from those who do not choose to volunteer.

a)
  1. Weakness of Opportunity Sampling Technique

b)
  1. Weakness of Random Sampling Technique

c)
  1. Weakness of Volunteer Sampling Technique

63.
  1. Participants should be asked if they want to take part and be given relevant information about what is involved.

a)
  1. Valid Consent

b)
  1. Right to Withdraw

c)
  1. Minimizing Harm

d)
  1. Lack of Deception

64.
  1. Participants should be made aware they can withdraw from the study at any time during or after data collection.

a)
  1. Valid Consent

b)
  1. Right to Withdraw

c)
  1. Minimizing Harm

d)
  1. Lack of Deception

65.
  1. Participants should be protected from all physical and psychological harm.

a)
  1. Valid Consent

b)
  1. Right to Withdraw

c)
  1. Minimizing Harm

d)
  1. Lack of Deception

66.
  1. Participants should not be deceived about the aims or misled about the study. 

a)
  1. Valid Consent

b)
  1. Right to Withdraw

c)
  1. Minimizing Harm

d)
  1. Lack of Deception

67.
  1. Participants’ data should not be passed to others who are not involved in the research and it should not be published in a way that would reveal their identity. 

a)
  1. Confidentiality

b)
  1. Privacy

c)
  1. Debriefing

68.
  1. Invasive/private questions should be avoided. Participants should be made aware of their right to ignore the questions they incur during the study.

a)
  1. Confidentiality

b)
  1. Privacy

c)
  1. Debriefing

69.
  1. Participants should be told what has happened, asked if they have concerns and given explanations at the end of the study. 

a)
  1. Confidentiality

b)
  1. Privacy

c)
  1. Debriefing

70.
  1. Researchers should minimize harm, discomfort and suffering to the animals and maximize the benefit of the research (e.g. applying findings to help other animals or humans). 

a)
  1. Minimizing Harm and Maximizing Benefit

b)
  1. Replacement

c)
  1. Species

d)
  1. Numbers

71.
  1. Alternatives to using animals should be considered where possible (e.g. computer simulations or videos of previous studies).

a)
  1. Minimizing Harm and Maximizing Benefit

b)
  1. Replacement

c)
  1. Species

d)
  1. Numbers

72.
  1. Appropriate species should be chosen (e.g. those least likely to suffer). SOme animals are considered more sentient than others (i.e. have the ability to feel). Non-human primates should be avoided due to the high levels of sentience.

a)
  1. Minimizing Harm and Maximizing Benefit

b)
  1. Replacement

c)
  1. Species

d)
  1. Numbers

73.
  1. Researchers should use the smallest number of animals possible to meet the research aims. Animals should not be used over a long period of time as this could prolong suffering. 

a)
  1. Minimizing Harm and Maximizing Benefit

b)
  1. Replacement

c)
  1. Species

d)
  1. Numbers

74.
  1. No procedure should cause physical or psychological harm or distress. For any procedure that might, a special project license is needed. 

a)
  1. Procedures

b)
  1. Pain, suffering and distress

c)
  1. Housing

d)
  1. Reward, deprivation and aversive stimuli

75.
  1. Death, disease and psychological or physical discomfort should be avoided. An animal’s environment should be enriched where possible. Potential harm and the benefits being gained should be balanced. 

a)
  1. Procedures

b)
  1. Pain, suffering and distress

c)
  1. Housing

d)
  1. Reward, deprivation and aversive stimuli

76.
  1. The social and natural behavior of the species should be considered. Animals who would normally live in social groups should not be isolated. Overcrowding should also be avoided to prevent stress and aggression. 

a)
  1. Procedures

b)
  1. Pain, suffering and distress

c)
  1. Housing

d)
  1. Reward, deprivation and aversive stimuli

77.
  1. Normal feeding patterns should be adhered to and deprivation or aversive stimulation should be avoided, or kept to the minimum needed to achieve the goals of the study. 

a)
  1. Procedures

b)
  1. Pain, suffering and distress

c)
  1. Housing

d)
  1. Reward, deprivation and aversive stimuli

78.
  1. Whether the study accurately shows that the independent variable caused changes in the dependent variable.

a)
  1. Internal Validity

b)
  1. Social Desirability Bias

c)
  1. Subjectivity

d)
  1. Demand Characteristics

e)
  1. Low Controls

79.
  1. Participants may want to present themselves in the best way possible, so answers may not represent true thoughts and feelings. 

a)
  1. Internal Validity

b)
  1. Social Desirability Bias

c)
  1. Subjectivity

d)
  1. Demand Characteristics

e)
  1. Low Controls

80.
  1. The researcher’s interpretation of behavior may be biased by personal thoughts, feelings and opinions. 

a)
  1. Internal Validity

b)
  1. Social Desirability Bias

c)
  1. Subjectivity

d)
  1. Demand Characteristics

e)
  1. Low Controls

81.
  1. Features of the environment which give away the aim of the study. 

a)
  1. Internal Validity

b)
  1. Social Desirability Bias

c)
  1. Subjectivity

d)
  1. Demand Characteristics

e)
  1. Low Controls

82.
  1. A lack of control over extraneous variables may lead to other factors affecting the dependent variable. 

a)
  1. Internal Validity

b)
  1. Social Desirability Bias

c)
  1. Subjectivity

d)
  1. Demand Characteristics

e)
  1. Low Controls

83.
  1. Whether the study's findings can be generalized to other people, settings, and times.

a)
  1. External Validity

b)
  1. Generalizability

c)
  1. Ecological Validity

d)
  1. Temporal Validity

84.
  1. The extent to which a study’s findings can be meaningfully applied to the target population.

a)
  1. External Validity

b)
  1. Generalizability

c)
  1. Ecological Validity

d)
  1. Temporal Validity

85.
  1. The extent to which the participants’ behavior reflects how they would behave in their everyday life. 

a)
  1. External Validity

b)
  1. Generalizability

c)
  1. Ecological Validity

d)
  1. Temporal Validity

86.
  1. The extent to which a study’s findings can be applied to other time periods. 

a)
  1. External Validity

b)
  1. Generalizability

c)
  1. Ecological Validity

d)
  1. Temporal Validity

87.
  1. Whether the findings of a study are consistentent due to standardized procedures and control variables. Ways to measure reliability:

a)
  1. Reliability

b)
  1. Inter-rater Reliability

c)
  1. Inter-observer Reliability

d)
  1. Test-retest Reliability

e)
  1. Replicability

88.
  1. The extent to which two researchers agree in their scoring of a questionnaire or test. 

a)
  1. Reliability

b)
  1. Inter-rater Reliability

c)
  1. Inter-observer Reliability

d)
  1. Test-retest Reliability

e)
  1. Replicability

89.
  1. The extent to which two researchers agree in their recording of behaviors in an observation. 

a)
  1. Reliability

b)
  1. Inter-rater Reliability

c)
  1. Inter-observer Reliability

d)
  1. Test-retest Reliability

e)
  1. Replicability

90.
  1. Participants repeat a test or questionnaire after a time period to see if they gain similar scores. 

a)
  1. Reliability

b)
  1. Inter-rater Reliability

c)
  1. Inter-observer Reliability

d)
  1. Test-retest Reliability

e)
  1. Replicability

91.
  1. Whether a study can be repeated in exactly the same way again through standardized instructions and procedures.

a)
  1. Reliability

b)
  1. Inter-rater Reliability

c)
  1. Inter-observer Reliability

d)
  1. Test-retest Reliability

e)
  1. Replicability

92.
  1. A single value that describes the whole of a data set.

a)
  1. Measure of Central Tendency

b)
  1. Measure of Spread

93.
  1. How spread out or close together the numbers in a group are

a)
  1. Measure of Central Tendency

b)
  1. Measure of Spread

94.
  1. Which of the following is a measure of central tendency?

a)
  1. Mean

b)
  1. Median

c)
  1. Mode

d)
  1. Range

e)
  1. Standard Deviation

95.
  1. Which of the following is a measure of spread?

a)
  1. Mean

b)
  1. Median

c)
  1. Mode

d)
  1. Range

e)
  1. Standard Deviation

96.
  1. Calculating by adding all of the scores together and dividing by the number of scores.

a)
  1. Mean

b)
  1. Median

c)
  1. Mode

d)
  1. Range

e)
  1. Standard Deviation

97.
  1. The ‘middle’ value when a list of numbers (scores) is put in order from smallest to greatest.

a)
  1. Mean

b)
  1. Median

c)
  1. Mode

d)
  1. Range

e)
  1. Standard Deviation

98.
  1. The most frequently occurring score.

a)
  1. Mean

b)
  1. Median

c)
  1. Mode

d)
  1. Range

e)
  1. Standard Deviation

99.
  1. The difference between the highest and lowest scores in a set.

a)
  1. Mean

b)
  1. Median

c)
  1. Mode

d)
  1. Range

e)
  1. Standard Deviation

100.
  1. Tells us how data is spread around the mean.

a)
  1. Mean

b)
  1. Median

c)
  1. Mode

d)
  1. Range

e)
  1. Standard Deviation

101.
  1. Used to show categorical data. Bars do not touch.

a)
  1. Bar Chart

b)
  1. Histogram

c)
  1. Scatter Graph

102.
  1. Used to show continuous data. Bars touch. 

a)
  1. Bar Chart

b)
  1. Histogram

c)
  1. Scatter Graph

103.
  1. Used to show a relationship between co-variables.

a)
  1. Bar Chart

b)
  1. Histogram

c)
  1. Scatter Graph