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Veijo Meisalo Department of Applied Sciences of Education An Introduction to the Concepts of Interest and Motivation IPUC TFPC Torun 2007 29274-IC-2-2005-1-AT- ERASMUS-IPUC-19

Veijo Meisalo Department of Applied Sciences of Education An Introduction to the Concepts of Interest and Motivation IPUC TFPC Torun 2007 29274-IC-2-2005-1-AT-ERASMUS-

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Veijo MeisaloDepartment of Applied Sciences of Education

An Introduction to the Concepts of Interest and Motivation

IPUC TFPC Torun 200729274-IC-2-2005-1-AT-ERASMUS-IPUC-19

2

Structure of the presentation

1. Discussion of the problems of Physics and Chemistry

Education, general background

2. Definition and classification of motivation and interest,

how to motivate students…

3. Some surveys including international and Finnish

research outcomes: ROSE International

ROSE Finland

Eurobarometer 2005

3

FROM

THEORY

TO

PRACTICE

FROM

PRACTICE

TO

THEORY

Unique teaching - learning situation in a classroom

Experimental

Constructivistic

self-piloting

Co-operative

Contextualised

Evaluation

level of development

Teacheras

researcher

Planningof

teaching

Professionally ThinkingTeacher

Theories

Learning theories- constructivism- contextualism- behaviorism- ...

Social interaction

Motivation

....

Models of teaching

Experimental- observation- classification- project- inquiry- ...

Information processing

Co-operative

....

Metaphors

Market model- MICT- Nature- workshop- ...

Professionally Thinking

Novice - Expert

....

4

The problems of Physics and Chemistry Education as Discussed in International Conferences

Too few students learn the contents or skills on the level of the goals written in the science curricula.Too few students choose facultative courses in upper secondary schools or in higher education.

Physics is not interesting for students (especially girls), physics and schemistry are dull and difficult subjects.

Teaching follows too often the model of transmission of knowledge, the pedagogical approaches are not versatile.Student practical work, teacher demonstrations and other experimental work are performed mechanically without thinking the goals. There are too much contents – never enough time!Modern ICT use in science learning is minimal.

5

Growing Ambivalence:The two faces of S&T

Compare Dr. Jekyll and Mr. Hyde!

S&T in the service of the good; saving lives, improving material conditions, providing knowledge, pushing back ignorance and superstition, providing insight, wisdom and cultural values. But also: Providing tools for oppression and material and cultural domination, means for the exploitation of nature and weapons for mass destruction. As always …?

6

FAMILY GOALS MODELS/STRATEGIES Experimental - acquisition of scientific knowledge

- development of different work or process related skills - understanding of the empirical nature of natural sciences - student’s attitudes and motivation to study science

Observation, Inquiry training, Concept Attainment, Exercises, Experiences and Investigations, Practical work, Teacher demonstrations, Class practicals, Small group activities etc.

Social Interaction To develop - social skills - communication

Cooperative Learning, Group Discus, Role Playing, Debate,

Information Processing/Cognitive

To develop - logical thinking processes - thoughtful citizens and critical thinking.

Learning by reading and writing, Advanced organizers, Mind Mapping, Memory Model

Creative problem solving

To develop - divergent thinking - creative skills - internal resources to see things in new/different ways

Problem Solving Brainstorming Overall mapping of problem situation

Classification of Models of Teaching by Joyce & Weil (on the basis of goals)

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The Emphasis of the Experimental Approach as Expressed in the Finnish Core Curricula

The Framework Curriculum of 1994 :

1. Experimental work may include laboratory work, demostrations and study visits

2. Experimental approach (action as well as narrative) is a pedagogical principle, where introduction to concepts, quantities,models, natural laws as well as making acquintance with applications is based on experimental information (emphasising concept formation).

The Finnish Core Curriculum of 2004 emphasises supporting with experimental activities

1. Learning of concepts

2. Learning of experimental skills

3. Understanding the experimental nature of sciences

4. (motivation)

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Student Interest

Interest in the subject under study determines what is learned

and how students learn (Krapp 2002). Individual and event-specific interest (cf. Krapp et al. 1992):

1. Individual interest is aroused gradually, it has an effect on

both individual knowledge and values and it is rather stable.

2. Event-specific interest can be aroused very fast

occasionally, it is emotional and may fade rapidly (Hidi

1990). There is a correlation between gender and interest:

e.g. boys are more interested in physics and technology than

girls.

9

How to Motivate Students?There are surveys and case studies on how interested students are in1. sciences and science subjects as well as the themes

under study, 2. In the contexts where science is met,3. In pedagogical approaches (Hoffman, 2002; Osborne

2003)4. In the relevance (e.g. further studies, working life).

Arousing interest is one of the goals in the Finnish Core Curriculum 2004!

There are also numerous textbooks giving practical advice for

teachers, e.g. Davis, 2002, Tools for Teaching Jossey-Bass: San Francisco

Ten basic approaches to motivating students

IPUC TFPC Torun 2007

Veijo Meisalo

Department of Applied Sciences of Education

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Ten basic approaches to motivating students

1. Fastening attention 2. Social motivation 3. Curiosity and usability as sources of motivation 4. Need for scaffolding 5. Optimal goals 6. Immediate feedback is the most efficient 7. Rewards and punishment motivate 8. Avoid excessive stress and anxiety 9. Behaviour models motivate striving towards

professional objectives 10. Value discussion motivates for the appreciation of

values

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1. Fastening attention

At the first stage of the teaching and learning situation the

teacher will first draw the students' attention to her/himself

Then moves it to the objectives of the beginning studies.

One can use as a starting point in the fastening of the

attention the normal routines and usages embedded in

the working culture of the educational institution

concerned at simplest for example by slight raising of her/his

voice. Short videoclips or demonstrations are tried and

found methods to fasten attention to the essentials.

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2. Social motivation

It should be pointed to the students what is expected from

them. An attempt should be made to create active learning

communities and an atmosphere of positive solidarity to

efficient studying among the students. Team working skills should be developed to promote

mutual support. The expectations of professional communities to lifelong

learning and self-development should be discussed. The willingness of young pupils to do something just for

pleasing the teacher should not be cultivated excessively.

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3. Curiosity and usability as sources of motivation

Courses or study periods should be systematically started

by co-operative planning where students have a say. Advance organisers are used to show the interesting

matters to be expected. There are always novel inventions and new branches in

science and technology – teachers can use Internet

resources etc. to keep abreast of the development. Human curiosity is a generally comprehensive principle but

particularly long-range work needs also other sources of

motivation. Students need to know, where the topics they are supposed

to learn, can be utilised later. Conceived usability depends on the context where the topic

is studied

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4. Need for scaffolding

The achievement motivation, a desire to succeed, is the

general principle most prominently visible in ST studies. This need is natural on everybody and possibilities

must be found for the saturating of it in spite of the

students' different ability and performance profiles. Guide students in the Proximal Zone of Development

Provide scaffolding when needed through tutoring etc.

Students must be given information about possible

successful study paths and vocational development. The significance of studies for career development is

shown also generally.

It also is good to bring up the possibilities of

technology in the positive control of the environment.

Theoretical studies and applications must be in balance at

all stages of studying.

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5. Optimal goals

A student is often very strongly indeed motivated by

success in the reaching of a certain goal – the stronger

the more challenging the task in question has been.

Correspondingly, a failure weakens motivation.

Therefore, attention must be paid to setting of objectives

to a proper level.

The targets must not be set too high, hopeless to reach.

The idea of optimal goals/objectives also includes the

fact that they should not be set too low. A task that has no challenge by itself is reduced to a

routine.

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6. Immediate feedback is the most efficient

Students must be first given feedback immediately after

the performance as clearly as possible and from many

sides. This principle is universally applicable in spite of the

criticism which has been directed to behaviourism. However, one must take into consideration that in

the performances which touch a student's

personality, feedback must be softened especially in

tender moments, using for example the “+++ and

how" method. Students are directed gradually to estimate their

performance level also independently and to

correct the mistakes by themselves. Not only the teacher but also fellow students etc. can and

should give feedback.

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7. Rewards and punishment motivate Stick and carrot are classical tools of motivation.

Rewards strengthen desired behaviour. Punishment either weakens the inclination to that behaviour

or causes experiencing of the whole situation unpleasant

and leads to avoiding such situations or the punisher(s). The basic solution is to utilise the principles of continuous

formative evaluation and to give encouragement whenever

students improve their performance compared to the earlier

performances.

Lead students to realise that e.g. to operate a finished self-

designed experimental setup and to be able to analyse data is

as such an encouraging reward.

Punishments are used carefully in specific situations only.

The Stick Method produces stress and anxiety: see below!

Be very specific when giving negative feedback.

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8. Avoid excessive stress and anxiety There are many examples of stress and anxiety leading to

burnout, or other negative phenomena in the modern

information society: excessive motivation means stress! The result can be a change of the whole personality

and manifested problems as disturbances of all

behaviour. Harmful effects can come in sight very

dramatically, indeed. Students must get an opportunity to relax before

demanding tasks, especially before creative problem

solving, ideation etc. Possibility of having certain privacy

in learning environments is important for avoiding stress. Possible stress effects must be taken into consideration

when giving prizes and punishments. Experiencing

success has usually big significance for avoiding

mounting of stress.

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9. Behaviour models motivate striving towards professional objectives

The teacher her/himself always functions as a behaviour

model. Be enthusiastic about what you teach! Students must be given an opportunity to get a versatile

picture of pioneers and current significant researchers

and developers of science and technology. The perseverance of both the operation of a model and

steady self-confidence must be brought out, but also

simultaneously the importance of working as a member of

a team. Good behaviour, social skills and empathy are often

important even professionally!

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10. Value discussion motivates for the appreciation of values

Moral and ethical problems will rise forth in many ways in

the applications and studying environments of science

and technology.

It is important that these problems are jointly discussed

and an attempt is made to find solutions to them.

The application of the methods of the creative problem

solving in this area is recommended.

Teachers and the whole educational system have to

follow high moral and ethical principles!

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Definition of Motivation

Motivation is an organised entity of psychological functions, which guide and control goal-oriented actions. These include

Personal goals: affective, cognitive, empowering, social, integrative, … Emotional arousal: pleasure, joy, enjoyment; satisfaction, pride, stress, fear; shame

Personal beliefs:expectations of success and failure; belief in the manageability and controllability of things; belief in one’s own abilities.

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Motivation and Learning

Learning and accomplishment are not based solely on cognitive factors, but interests and beliefs on own abilities and possibilities of reaching the goals (”I do not cope physics!”) influence learning

Goals of the learner influence her performance and they

can be classified according to goal theories e.g. as

follows:

1. Goals oriented towards task performance or self-

assertion

2. Goals oriented towards social expectations

3. Goals of learning, accomplishing or avoiding tasks

as supporting one’s ego

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Student with task orientation has performing the task as a goal and feels failing the task as a challenge

Student Orientation and Goals Influence Studies and Learning

TEACHER

STUDENT TASK

Student with social orientation has as her goal interaction with her teacher or fellow students: she does not take personal responsibility of performing the task and tries to find out what her teacher expects of her and seeks the acceptance of her teacher and fellow students.

STUDENT

Student defending her ego feels reducing feelings of fear as an important goal and refuses to perform a task to avoid failing

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1. Task-Oriented Student

Task-oriented studenthas as her goal performing the task or solving the problemfinds failing a task as a challengewants to perform the tasks to ultimate successis not easily disturbed by distractors

TEACHER

STUDENT TASK

Task-oriented student is interested in the task and focuses on performing it.

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2. Socially Oriented Student

Student with social-dependence orientationhas as her goal maintaining interaction with her teacher or her fellow studentsdoes not take responsibility of performing the tasktries to find out, what her teacher expects and what pleases the teacherseeks for acceptance and help more than she actually needscan not act autonomously

TEACHER

STUDENT TASK

For a socially oriented student experiences of pleasing and being accepted are important, likewise acting as her teacher expects - taking no responsibility.

STUDENT

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3. Student Defending Her Ego

Student defending her egofinds reducing fearful feelings as an important goalrefuses tasks to avoid failing experiencesmay justify failing beforehand (headache…)may have physical symptoms when stressed

TEACHER

STUDENT TASK

Student defending her ego tries to protect herself from experiences of failing.

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According to the Motivation Theory by Deci & Ryan:

Psychological needs influence motivation: 1) need of feeling competent, 2) need of autonomy, 3) curiosity, and4) need to belong in a group.

There is a continuum of inner - outer motivation inner, self-determined motivation, ( interest) integrated control control through identification internalised control externally controlled behaviour

Although students primarily produce their own motivation, it can be enhanced and learned.

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Outer towards Inner Motivation

Teacher behaviour:

listening to students - even outside lessons should not copy her memos on the blackboard allows students time to reflect both alone and in groups does not give direct answers to student questions avoids saying ”you have to”, ”you must”, ... is not critical but constructive and emphatic (uses the 3+ and how approach, …)

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External Factors Having Effect on Motivation

Ego, self-belief, ...Socialisation and gender identity (social environment influences attitudes and interests)

Parents, relatives, ..Peers (sisters, pals, …)Media, movies, …Hobbies, …

Experiences, especially at early age, in kindergarten and on lower gradesPhysics is masculine, many boys study physics , …The problem is too many generalisations - the phenomenon of motivation is complex!

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How to Observe Motivational Factors when Teaching?

Be conscious of the differences in student motivationIdentify interests and how to influence them Support learning goals and utilise performance goals in controlled mannerAvoid stress and feelings of failure, find optimal goal levelsSupport the beliefs of student capabilityCreate Flow experiences which bring pleasureSupport observations of student progress, give immediate positive feedbackMove from the norms of social acceptance towards task orientationAnalyse the reasons for failure – support strategic approaches, unravel self-defensive orientation

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Pupils’ Attitudes to Science and Technology.

Summary

The positive side: They accept the importance of S&T for society S&T will improve life S&T will make work more interesting S&T has more advantages than dangers Young people love modern ICT:

They are great consumers!

33

Pupils’ views, the dark side

They dislike S&T at school, S&T is difficult and boring etc.

They are interested in ’real science’ – but less in ’school

science’ (a ’living fossil’?)

The curriculum is overloaded with ‘correct answers’ – no room

for creativity, fantasy etc.

They are very hesitant to study S&T and to work with S&T

They often have a negative perception of scientists as persons

(no good role models?)

Evidence to follow…

34

”My opinions about science and technology”

16 itemsFrom 1 = Disagree to 4 = Agree (2,5 is ’neutral’)

35

ROSE Update

Schreiner & Sjøberg, 2006, Science education and young

people identity construction – two mutually incompatible

projects? In Science education and youths identity

construction. University of Oslo

www.ils.uio.no/english/rose

36

Background of the Finnish Survey

The international

ROSE (The Relevance of Science Education)

study

Stratified sampling, weighted by the size of the school:

- 75 comprehensive schools, mean value 65 students /

school yielding 4954 students

81 % of the schools (3699 students) returned the

questionnaires

- 49 upper secondary schools, 2nd graders

89 % returned the questionnaires yielding 2661 students,

of whom 1110 had chosen et least two elective courses in

physics

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Why you chose/ did not choose elective courses in physics?

Physics makes largest gender differences in beliefs,

then chemistry and smallest differences for biology.

Formulation of the items: Evaluate the influence of the

following reasons….

24 items surveying the reasons for not choosing

elective courses in physics or dropping out. 20 items surveying the reasons for choosing

elective courses in physics

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female, n = 1569

male, n = 1213

Num

ber

of s

tude

nts

0 = compulsory courses only

Choosing elective courses in physics

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Why not choosing physics?

Reason (1 = min, 5 = max) mean No future relevance 3,3I am no good in physics 3,3Physics is too technical 2,3”Media”, teachers, coucellors 1,9family, friends 1,3

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Gender differences

No statistically significant differences:- physics is technical- physics is important and interesting - future relevance- positive influence of family and friends- positive influence of media, teachers, councellorsStatistically significant difference in: - physics is not useful in my future life (f) - I am no good in physics (f)/ I can physics (m) - family and frends have negative attitudes (f) - negative attitude of teacher etc. (f)

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Context survey, comprehensive schools

Are there differences in male and female students’

interests in physics studied in different contexts ? Similar survey on chemistry contexts Items of the type: how interested you are in studying

the following things?

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Context sum variables

Six contexts, e.g. in mechanics:

1. Idealised situations (force and movement)

2. Society (traffic safety)

3. Technical applications (bridge construction, support

strength and forces)

4. Human beings and body, (muscular forces)

5. Experiments and investigations, (investigating force

phenomena)

6. Technological construction (planning and

constructing a toy or a structure)

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Ideal contextN

umbe

r of

stu

dent

s

female

male

Difference of means moderate

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Society

Communication satellites etc. Traffic safety (starting, braking, ...) How to save energy and avoid misuse? Musical instruments and how they produce different

sounds How to use and keep in shape everyday electrical

appliances? How electricity has influenced the development of our

society? Medical use of X-rays, ultrasound etc.

45

Social contextN

umbe

r of

stu

dent

s

femal

e

male

Difference of means moderate

46

Context technical applicationsN

umbe

r of

stu

dent

s

female

male

Difference of means large

47

Human context

Muscular strain and forces in sports Hearth, blood pressure and circulation, control of body

temperature Effects of solarium and sunlight on skin Electrical shock / electrical muscular phenomena Effect of ionising radiation on human body

48

Human contextN

umbe

r of

stu

dent

s

female

male

No significant difference of means

49

Context of experiments and investigationsN

umbe

r of

stu

dent

s

female

male

Difference of means small

50

Context of technological constructionN

umbe

r of

stu

dent

s

female

male

Difference of means small

51

Pedagogical approaches in physics and chemistry teaching

How physics and chemistry is taught now (evaluated by

teachers and students) How they would like these subjects to be taught Items were of the type:

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Versatile pedagogical approachesMajor changes wished to the present situation: 1) more industrial visits etc., 2) teacher-led discussions, 3) small-group activities (practical work, concept maps)female students wish more drawing of concept maps, doing practical work in small groups and following teacher teachingTeacher has to remember that- there are different kinds of students in the classroom (no cloned medians)- there are different types of goals (knowledge, skills, …) – there is a need for various pedagogical approaches

53

Europeans, Science and Technology

Eurobarometer 55.2 (2001)

(one of many surveys)

New 2003: Including 13 potential member states

S&T related interest and knowledge Values, science, technology Responsibilities and accountability of scientists New, revised study 2005 available at

europa.eu.int/comm/public_opinion/index_en.htm Hodge (2006) What Europeans really think (and know) about

science and technology. Science in School 3, 71-77

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Assignment

Students in Torun had an assignment to analyse as

groupwork their own good and bad experiences as to

motivation in science studies.

Students worked in five groups and the discussion was

most lively.

Students had altogether far more positive than negative

experiences.

Some features were presented positively by one group

and respective opposite feature as negative by another.

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Motivating features experienced by students

Student participation/social perspective

Possibility to do one’s own way

Making experiments

Variation of teaching methods, use of available

technology

Doing something useful, having connection to everyday

life experiences

56

Negative features experienced by students

Too difficult or too easy

No appreciation/free speech/activation of students

Too long and complicated texts

57

On interpreting the above lists

We have to remember, that the students attending the IP

course were not randomly selected, but they were a

group of rather special internationally active science

student teachers!

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Copyright

These slides have been propared in the context of

research and development projects at the Centre of

Mathematics and Science Education Research at the

Department of Applied Sciences of Education, University

of Helsinki. There have been extensive co-operation and

support programmes with National Board of Education

(Finland), City of Helsinki and Federation of Finnish

Electrical and Electronics Industry etc. The use of this

material for non-commercial purposes is allowed, but

commercial use in any form including versions in any

other language must be agreed in writing with the

Research Centre.

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