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Learning Approach. Research Methods. Question 1. While at school Thomas noticed an increase in aggressive behaviour at break time when more people were outside. This is an example of A   negative correlation B   no correlation C   positive correlation . Answer 1. - PowerPoint PPT Presentation

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Page 1: Learning Approach

Learning Approach

Research Methods

Page 2: Learning Approach

Question 1

• While at school Thomas noticed an increase in aggressive behaviour at break time when more people were outside. This is an example of

• A negative correlation • B no correlation • C positive correlation

Page 3: Learning Approach

Answer 1

• While at school Thomas noticed an increase in aggressive behaviour at break time when more people were outside. This is an example of

• A negative correlation • B no correlation • C positive correlation – Why is this… (PTO)

Page 4: Learning Approach

Answer 1 - Correlations• Correlation is a statistical measurement of the relationship

between two variables. • Possible correlations range from +1 to –1. • A zero correlation indicates that there is no relationship between

the variables. • A correlation of –1 indicates a perfect negative correlation,

meaning that as one variable goes up, the other goes down. • A correlation of +1 indicates a perfect positive correlation,

meaning that both variables move in the same direction together – So Thomas notices an increase in aggressive behaviour at break time when there are more people outside (why might that be?)

Page 5: Learning Approach

Question 2

• Which sampling method gives an equal chance of a participant being selected?

• A Opportunity • B Random • C Self-selected • D Volunteer

Page 6: Learning Approach

Answer 2

• Which sampling method gives an equal chance of a participant being selected?

• A Opportunity • B Random – Why?• C Self-selected • D Volunteer

Page 7: Learning Approach

Answer 2 – Random sampling

• A random sample is a subset of individuals that are randomly selected from a population.

• Because researchers usually cannot obtain data from every single person in a group, a smaller portion is randomly selected to represent the entire group as a whole.

• The goal is to obtain a sample that is representative of the larger population.

Page 8: Learning Approach

Answer 2 task

• What are the strengths and weaknesses of random sampling?

Page 9: Learning Approach

Answer 2 task• What are the strengths and weaknesses of random sampling?

• Random sampling is the best technique for providing an unbiased representative sample of a target population.

• Random sampling can be very time consuming and is often impossible to carry out, particularly when you have a large target population, of say all students.

• For example if you do not have the names of all the people in your target population you would struggle to conduct a random sample.

• If you ask people to volunteer for a study the sample is already not random as some people may be more or less likely to volunteer for things.

• Similarly if you decided to put out an advert for participants it would be almost impossible to guarantee that every member of your target population has an equal chance of viewing the advert.

Page 10: Learning Approach

Answer 2 task

• What are the strengths and weaknesses of opportunity sampling?

Page 11: Learning Approach

Answer 2• What about the others – Opportunity sampling • Opportunity sampling is the sampling technique most used by psychology

students. • It consists of taking the sample from people who are available at the time the

study is carried out and fit the criteria your are looking for. • This may simply consist of choosing the first 20 students in your college

canteen to fill in your questionnaire.• The main advantage of opportunity sampling are that it is quick and easy as

the sample already exists.• The main disadvantage is that the opportunity sample is biased because the

members of it have self selected and are all similar in at least one way, therefore any results will only be truly generalisable to that specific group of people

Page 12: Learning Approach

Answer 2 task

• What are the strengths and weaknesses of self-selected sampling?

Page 13: Learning Approach

Answer 2• What about the others – Self-selected• Self selected sampling (or volunteer sampling) consists of participants becoming

part of a study because they volunteer when asked or in response to an advert. • This sampling technique is used in a number of the core studies, for example

Milgram (1963).• This technique, like opportunity sampling, is useful as it is quick and relatively

easy to do. • It can also reach a wide variety of participants. • However, the type of participants who volunteer may not be representative of

the target population for a number of reasons.• For example, they may be more obedient, more motivated to take part in

studies and so on.

Page 14: Learning Approach

Question 3

IV is the independent variable and DV is the dependant variable. Identify which of the following statements is correct.

• A The IV is manipulated to see the effect on the DV. • B The DV is manipulated to see the effect on the IV. • C The IV is kept constant so it does not affect the

results. • D The DV is kept constant so it does not affect the

results.

Page 15: Learning Approach

Answer 3

IV is the independent variable and DV is the dependent variable. Identify which of the following statements is correct.

• A The IV is manipulated to see the effect on the DV. • B The DV is manipulated to see the effect on the IV. • C The IV is kept constant so it does not affect the

results. • D The DV is kept constant so it does not affect the

results.

Page 16: Learning Approach

Question 4An independent groups design is when

A - Different participants take part in different experimental conditions.

B - Different participants are matched and they take part in different conditions.

C - The same participants take part in all the experimental conditions.

D - Half the participants do condition 1 first then condition 2, the other half do condition 2 first then condition 1.

Page 17: Learning Approach

Answer 4An independent groups design is when:

A - Different participants take part in different experimental conditions.

B - Different participants are matched and they take part in different conditions. (matched pairs design)

C - The same participants take part in all the experimental conditions. (repeat measures)

D - Half the participants do condition 1 first then condition 2, the other half do condition 2 first then condition 1. (repeat measures)

Page 18: Learning Approach

Answer 4 task

• What are the strengths and weaknesses of an independent group design?

Page 19: Learning Approach

Answer 4 task• What are the strengths and weaknesses of an independent group design?

• Avoids order effects (such as practice or fatigue) as people participate in one condition only.

• If a person is involved in several conditions they may become bored, tired and fed up by the time they come to the second condition, or becoming wise to the requirements of the experiment!

• More people are needed than with the repeated measures design (i.e. more time consuming).

• Differences between participants in the groups may affect results, for example; variations in age, sex or social background.

• These differences are known as participant variables (i.e. a type of extraneous variable).

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Answer 4 task

Matched pairs design:

• What is it?• What are the strengths and weaknesses?

Page 21: Learning Approach

Answer 4 taskMatched pairs design:

• One pair must be randomly assigned to the experimental group and the other to the control group.

• Reduces participant (i.e. extraneous) variables because the researcher has tried to pair up the participants so that each condition has people with similar abilities and characteristics.

• Avoids order effects, and so counterbalancing is not necessary.• Very time-consuming trying to find closely matched pairs.• Impossible to match people exactly, unless identical twins!

Page 22: Learning Approach

Answer 4 task

Repeat measures:

• What is it?• What are the strengths and weaknesses?

Page 23: Learning Approach

Answer 4 taskRepeat measures:

• The same participants take part in each condition of the independent variable. This means that each condition of the experiment includes the same group of participants.

• Pro: Fewer people are needed as they take part in all conditions (i.e. saves time)

• There may be order effects. Order effects refer to the order of the conditions having an effect on the participants’ behavior.

• Performance in the second condition may be better because the participants know what to do (i.e. practice effect).

• Or their performance might be worse in the second condition because they are tired (i.e. fatigue effect).

Page 24: Learning Approach

Some questions on inferential statistics:

Page 25: Learning Approach

Tests of difference

Participant design

Level of measurement

Nominal data Ordinal data Interval/ratio data

Repeated measures or matched pairs Sign test Wilcoxon Matched Related t test*

Independent groups chi-squared test Mann-Whitney Unrelated t test*

Tests for relationship (correlations)

Ordinal data Interval/ratio data

Spearman’s Rank Correlation Co-efficient Pearson’s Product Moment Correlation Co-efficient*

e.g. if you have ordinal data with independent measures design and you’re looking for a difference, you will use Mann-Whitney ‘U.’

Page 26: Learning Approach

Question 5

• In order to carry out a Mann Whitney U Test on data which two of the following statements must be correct?

• A The data can be nominal. • B The data can be ordinal. • C The design must be correlational. • D The experimental design must be independent groups. • E The experimental design must be matched pairs.

F The experimental design must be repeated measures.

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Question 5 Answer

• In order to carry out a Mann Whitney U Test on data which two of the following statements must be correct?

• A The data can be nominal. • B The data can be ordinal. • C The design must be correlational. • D The experimental design must be independent

groups. • E The experimental design must be matched pairs.

F The experimental design must be repeated measures.

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When choosing a test there are three things to consider:

1) NOIR: What is the level of your data?

• Nominal Data• Ordinal Data

• Interval and Ratio

Page 29: Learning Approach

When choosing a test there are three things to consider:

1) NOIR: What is the level of your data?

• How many people like running?• Sprinting?• Weight training?

Page 30: Learning Approach

When choosing a test there are three things to consider:

1) NOIR: What is the level of your data?

• How many people like running?• Sprinting?• Weight training?

• Nominal Data!

Page 31: Learning Approach

When choosing a test there are three things to consider:

1) NOIR: What is the level of your data?

• Using a likert scale rate the following out of 5 (5 being the highest) of importance to the human body

• running?• Sprinting?• Weight training?

Page 32: Learning Approach

When choosing a test there are three things to consider:

1) NOIR: What is the level of your data?

• Using a likert scale rate the following out of 5 (5 being the highest) of importance to the human body

• running?• Sprinting?• Weight training?

• Ordinal Data (ranking some type of order)

Page 33: Learning Approach

When choosing a test there are three things to consider:

1) NOIR: What is the level of your data?

• The order established just then is not specific enough.

• Therefore we may consider them in terms of interval/ratio data:

- Running (burns 200 calories in 30 mins)• Sprinting (burns 400 calories in 30 mins)• Weight training (burns 600 calories in 30 mins)

Page 34: Learning Approach

Nominal Data: • The simplest thing a number can do. • It can tell us how many things there are! • Example - nominal data is a headcount or a tally. • It doesn’t tell us if something is bigger, brighter or bolder, just how

many. • For example - show of hands; how many people in the class study

English. • Your head count provides nominal data. • If you were replicating Piaget’s research at a primary school you might

count the number of five year olds who can successfully complete the three mountains task and compare this to the number of seven year olds (a great study!).

• Give some examples of this type of data…

Page 35: Learning Approach

Ordinal Data:• Allows us to put things in order. • For example ‘A’ might be more attractive than ‘B’ but uglier than ‘C’. • We have the order ‘C’ ‘A’ ’B’ in terms of attractiveness. • Crucially however, we can’t be sure that the difference between ‘C’ and ‘A’ is

the same as the difference between ‘A’ and ‘B’. • ‘C’ and ‘A’ might both be very attractive whereas ‘B’ might be less attractive. • We can’t tell that the intervals are the same. • Usain Bolt won the men’s 200m at Beijing, Shawn Crawford was second and

Walter Dix third. • From this we can’t tell if the difference between first and second was the

same as the difference between second and third. • First, second, third provides ordinal data.• Give some examples of this type of data…

Page 36: Learning Approach

Interval and Ratio:• Allows us to put things in order (ascending or descending) just as ordinal, however this time

we can be sure that the intervals are the same. • We know that the difference between 10cm and 11cm is the same as the difference between

15cm and 16cm. • The same applies to weight or mass, temperature and time. • An odd one to consider is IQ. • Some psychologists believe it yields interval/ratio data, others that it is merely ordinal. What

do you think?• Generally speaking if you need a piece of equipment to measure it, then its interval or ratio. • For the purposes of statistics interval and ratio are taken as the same.• There is however, a subtle difference. • Ratio has a true zero. • So no minus values, e.g. time, weight, height. • Interval data can be minus e.g. temperature in degrees Celcius. • As a result you can say that 20cm is twice as long as 10cm. You cannot say 20C is twice as hot

as 10C.

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When choosing a test there are three things to consider:

2) Correlation or difference?

Page 38: Learning Approach

Correlation or difference?

• The issue - The relationship between attractiveness and punishment. • This could be done either way:

• You could produce an ascending scale of attractiveness and compare this to the level of punishment given to each person. You would predict a negative correlation; as attractiveness increases, level of punishment given decreases.

• Alternatively you could split your photographs into two groups, with the beautiful people in one group and less beautiful in the other. Then count the level of punishment offered for each. You are now looking for a difference between the two groups.

Page 39: Learning Approach

When choosing a test there are three things to consider:

3) Repeat or independent measures design?

Page 40: Learning Approach

Repeated or independent measures design:

• If you’re using the same group of participants to assess both variables its repeated measures.

• If the participants in one condition differ from the other its independent.

• There are times when the decision is made for you. • Sex differences, age differences, cultural

differences… • They have to be different participants in each

condition.

Page 41: Learning Approach

Tests of difference

Participant design

Level of measurement

Nominal data Ordinal data Interval/ratio data

Repeated measures or matched pairs Sign test Wilcoxon Matched Related t test*

Independent groups chi-squared test Mann-Whitney Unrelated t test*

Tests for relationship (correlations)

Ordinal data Nominal Interval/ratio data

Spearman’s Rank Correlation Co-efficient chi-squared test Pearson’s Product Moment Correlation Co-efficient*

e.g. if you have ordinal data with independent measures design and you’re looking for a difference, you will use Mann-Whitney ‘U.’

Page 42: Learning Approach

Decision timeHaving decided on the above three dimensions, use the chart below to decide which test to use. You will be expected to know about three: Chi squared, Mann-Whitney ‘U’ and Spearman’s ‘rho.’

Test of difference Test of correlation (relationship)

Type of Data Repeated Measures / matched Pairs

Independent measures / single

participant

Nominal Sign Test Chi Squared Chi Squared

Ordinal Wilcoxon sign test Mann Whitney ‘U’ Spearman ‘rho’

Interval/ratio

Related ‘t’ test Independent (unrelated) ‘t’ test

Pearson product moment (‘r’)

e.g. if you have ordinal data with independent measures design and you’re looking for a difference, you will use Mann-Whitney ‘U.’

Page 43: Learning Approach

Inferential statistics:

• At the end of this you’ll have calculated ONE number.

• This number will tell you whether your results are meaningful and statistically significant, or whether they’ve more than likely occurred by chance and are little more than a fluke.

• These are your Critical and observed values.

Page 44: Learning Approach

Critical and observed values• The number you calculate is your observed value. • This needs to be compared with the critical value in the appropriate

table. • Each test has its own table with various critical values depending on the

level of significance (5% (0.05), 1% (0.01), 0.5% (0.005)) of the results being due to chance.

• With Spearman’s rho and chi squared tests the number you calculate needs to be equal to or greater than the critical value for your findings to be significant.

• ‘Spearman’s rho’ and ‘chi squared’ both contain ‘Rs’ as does the word gReater

• ‘Mann Whitney U’ test does not contain an R so with this test the critical value needs to be equal to or smaller than the critical value.

Page 45: Learning Approach

Question 6

• A study was carried out to investigate whether kicking off from the starting block with the right foot or left foot gave sprinters an advantage.

• 20 participants were asked to take part in two sprints; in one trial they kicked off with their left foot and in another with their right.

• It was found that on average kicking off with their right foot gave them an advantage of 80 ms (milliseconds).

• Give a non-directional (two-tailed) experimental hypothesis for the study (2).

Page 46: Learning Approach

Help:• A one tailed hypothesis specifies a directional relationship between

groups. • Here we are saying that we expect children in Samoa to be further

from their mothers than children in Belize. • We not only state that there will be differences between the groups

but we specify in which direction the differences will exist. • Anytime we expect a relationship to be directional (i.e. to go one

specific way) we are using a one-tailed hypothesis.• This is the opposite of a two-tailed hypothesis. • A two tailed hypothesis would predict that there was a difference

between groups, but, would make no reference to the direction of the effect.

Page 47: Learning Approach

Question 6 Answer• 2 marks for an appropriate experimental hypothesis. Partial mark if only

the IV or the DV given.A non-directional (two-tailed) hypothesis must be given. 0 marks for a directional or a null hypothesis.

• There is a difference in the time taken to sprint/eq; (1 mark) • There is a difference between whether it was the left or right foot/eq; (1

mark) • There will be a difference in the speed/time taken from the starting

blocks, depending which foot the sprinters use/eq; (2 marks) • Either moving off with the left foot or the right foot will lead to a

decrease in the time taken to push off the starting blocks/eq; (2 marks) • Look for other reasonable ways of expressing a hypothesis.

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Question 7

• State the design used in the study.

Page 49: Learning Approach

Question 7 Answer:

• State the design used in the study.

• Reject methods or ‘same participants’.If more than one answer given accept the first one.

• repeated measures • related design • Within groups design • related [single word only] • repeated [single word only]

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Question 8:

• State the independent variable (IV) for the study.

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Question 8:

• State the independent variable (IV) for the study.

• The IV gets 1 mark.The IV is which foot they kick off from the starting block with. Just the word foot isn’t enough, they have to mention left and right, or ‘which foot’ to get the mark.

• Look for other reasonable ways of expressing the IV.

Page 52: Learning Approach

Question 9:

• Researchers carried out a correlational study to see if there was a relationship between eating breakfast and students’ scores on a math test.

• They carried out a Spearman’s rho test on the data and found that the observed value of rho was +0.519, N = 20.

• Table to show the critical values for Spearman’s test

• What is meant by the term p≤0.05?

p≤0.05 p≤0.025

N=20 0.380 0.447

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Question 9 Answer:• A full answer must refer to the probability the results are due to chance and

the answer must also refer to the correct probability (1/20, 5%). This can be expressed either as a figure, or as 5%, for 2 marks.

• The results are significant at 5%/eq; 1 mark • p<0.05 means that we can be at least 95% confident that the results did not

occur by chance/eq; 1 mark. • The probability the results are due to chance is equal or less than to 5%/

5/100/ 1/20 /eq; 2 marks • There is a 95% or more probability the results are not due to chance/eq; 2

marks. • The probability the results are due to chance is equal or less than 5/100 /eq; 2

marks. • There is a 1/20 or less probability the results are due to chance/eq; two

marks.

Page 54: Learning Approach

Question 10:

• State whether the researchers would reject their null hypothesis.

Page 55: Learning Approach

Question 10 Answer:

• State whether the researchers would reject their null hypothesis.

• 0 marks for accept.A one word answer is acceptable.

• • Reject/eq; • Reject the null hypothesis/eq; • Yes/eq; • Look for other reasonable ways of expressing this

answer.

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Question 11:

• Explain your answer to (b)(i) above.

Page 57: Learning Approach

Question 11:• Explain your answer to (b)(i) above.

• T.E. - If 12bi is blank or incorrect and bii clearly refers to the rejection of the null hypothesis then max marks can be given.

• A full answer must refer to the observed value and the critical value and must mention the actual figures. One mark for a weak answer and two marks when an answer is elaborated.

• The observed value is bigger than the critical value/eq; 1 mark. • 0.519 is bigger than 0.38/eq; 1 mark. • the observed value of rho is greater than the critical value at both .05 and .01 so it

would not matter which level of significance was chosen so the null would be rejected/eq: 2 marks

• The observed value of 0.519is bigger than the critical value of 0.38/0.447/eq; 2 marks. • The critical value is 0.38/0.447 which is smaller than the observed value of 0.519/eq; 2

marks.

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Question 12 (10 marks) – DON’T DO JUST EXPLAIN!:

• For part of your course you will have carried out a practical in the Psychodynamic Approach which was a correlation.

• Describe the procedure of your practical, and evaluate your practical. You may evaluate your investigation in terms of:

• • validity• reliability• credibility• generalisability .

Page 59: Learning Approach

Question 13

• Nerve cells are called:

A neurons B synapsesC neurotransmitters D genes

Page 60: Learning Approach

Answer 13

• Nerve cells are called:

A neurons B synapsesC neurotransmitters D genes

Page 61: Learning Approach

Question 14• Which two of the following brain activities are more

noticeable in male brains than in female brains?

• A Verbal tasks are more lateralised to the left hemisphere • B Verbal tasks are more lateralised to the right hemisphere • C Spatial tasks are more lateralised to the left hemisphere • D Spatial tasks are more lateralised to the right hemisphere • E Verbal tasks are more equal in both hemispheres • F Spatial tasks are more equal in both hemispheres

Page 62: Learning Approach

Answer 14• Which two of the following brain activities are more noticeable

in male brains than in female brains?

• A Verbal tasks are more lateralised to the left hemisphere • B Verbal tasks are more lateralised to the right hemisphere • C Spatial tasks are more lateralised to the left hemisphere • D Spatial tasks are more lateralised to the right hemisphere • E Verbal tasks are more equal in both hemispheres • F Spatial tasks are more equal in both hemispheres

Page 63: Learning Approach

Question 15

• Peter carried out an observation in the High Street, the participants did not know they were being observed. When the participants do not know they are being observed it is:

• A overt observation • B covert observation • C participant observation • D non-participant observation

Page 64: Learning Approach

Answer 15

• Peter carried out an observation in the High Street, the participants did not know they were being observed. When the participants do not know they are being observed it is:

• A overt observation • B covert observation • C participant observation • D non-participant observation

Page 65: Learning Approach

Question 16

• Validity is when you

• A measure what you claim to measure. • B can replicate your study. • C impose your own opinion on the results. • D can say your results are true for other

people.

Page 66: Learning Approach

Question 16

• Validity is when you

• A measure what you claim to measure. • B can replicate your study. • C impose your own opinion on the results. • D can say your results are true for other

people.

Page 67: Learning Approach

Question 17• Which two of the following statements are strengths of the

laboratory experimental method?

• A There are tight controls so cause and effect can be established.

• B Due to the controlled environment behaviour is more likely to be natural.

• C There is little chance of demand characteristics. • D The laboratory environment ensures good ecological

validity • E The controls make the laboratory experiment replicable.

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Answer 17• Which two of the following statements are strengths of the

laboratory experimental method?

• A There are tight controls so cause and effect can be established.

• B Due to the controlled environment behaviour is more likely to be natural.

• C There is little chance of demand characteristics. • D The laboratory environment ensures good ecological

validity • E The controls make the laboratory experiment replicable.

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Question 18 – 1 mark

• In the Learning Approach, you will have carried out an observation. State the aim of your observation.

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Answer 18• In the Learning Approach, you will have carried out an observation.

State the aim of your observation.

• One mark for the aim of the observation. The aim must clearly identify what the study was about otherwise 0 marks.If the aim does not relate to an observation that can fit to the Learning Approach then 0 marks.

• The aim of the study was to see if boys or girls choose different toys to play with/eq;

• The aim was to see if positive reinforcement lead to children showing more desired behaviours in “The House of Tiny Tearaways”/eq;

• We observed adverts to see if women were more likely to be used to advertise cleaning products/eq;

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Question 19 – check mark scheme

• Outline the results of your observation. (2)

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Question 20 – Check mark scheme

• Evaluate your observation in terms of generalisability and reliability (5)

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Q 20

• Operant conditioning is a theory from the Learning Approach. Define the following terms (2):

Positive reinforcement

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A 20 Positive reinforcement (2)

• Max 1 mark for an elaborated example. • E.g. • Showing the desired behaviour gains a reward/eq; • A desired behaviour is rewarded with something pleasant/eq; • So the desired behaviour is likely to be repeated/eq; • The child gets something they like for behaving in the desired • way/eq; • E.g. a child tidies their room and gets some extra pocket • money/eq; • Look for other reasonable ways of expressing this answer.

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Q 21

• Define Negative reinforcement (2).

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A 21• Define Negative reinforcement (2).

• Max 1 mark for an elaborated example. • e.g. • Something unpleasant is taken away for the desired • behaviour/eq; • So they are more likely to repeat the behaviour/eq; • When a child behaves something they dislike is removed/eq; • E.g. if they tidy their bedroom they are no longer • grounded/eq; • Look for other reasonable ways of expressing this answer.

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Q 22

• Sally has just started school. Her teacher is concerned about her behaviour. Sally finds it hard to sit still and concentrate on her work, and she is constantly shouting out and wanting the teacher’s attention all the time.

• Using the principles of operant conditioning, explain how the teacher could change Sally’s behaviour (4).

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A 22 (4)- If the scenario is not referred to explicitly at least once max 3 marks. • e.g. • The teacher should try and ignore Sally’s attention seeking • behaviour if it is possible/eq; • Sally could have a star system where she gets a star for not • shouting out/for concentrating on her work/eq; • At the end of the week she could have a small prize depending • on the number of stars she has collected/eq; • If Sally is attention seeking she could be made to stand outside • the classroom where she will not get any attention/eq; • To avoid this Sally will realise she has to behave and wait her • turn/eq; • If a child is punished for bad behaviour they are less likely to • repeat that behaviour/eq; • The teacher should praise Sally for sitting quietly for a minute, • and gradually build up the amount of time before she gets praise (positive reinforcement)/eq; - Look for other reasonable ways to express this answer.

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Q 23 (12 marks)

• Describe the development of gender as explained by the Learning Approach and compare it to the Psychodynamic explanation of gender development.

• Comparisons include considering similarities and /or differences.