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Balancing theory and practice in actuarial education

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Title: Balancing theory and practice in actuarial education


1
Balancingtheory and practicein actuarial
education
  • John Shepherd
  • Associate Professor of Actuarial Studies
  • Macquarie University
  • Sydney, Australia

2
Balancing theory practice in actuarial
education(A work in progress )
  • 1 Reflecting on 25 years of teaching actuarial
    students ?
  • 2 Implications for the structure of actuarial
    education ?
  • 3 Balancing theory and practice

3
Presentation outline
  • Setting a framework learning and teaching
  • What is teaching?
  • What is the curriculum?
  • 1 Learning objectives/outcomes
  • 2 Assessment tasks
  • 3 Teaching/learning activities
  • Digression Actuarial capabilities
  • Implications for actuarial learning
  • Implications for professional accreditation
  • Conclusions

4
Presenters perspective
  • Over 25 years teaching thousands of actuarial
    (and other) undergraduate students at Macquarie
    University in Sydney
  • Teaching actuarial students face-to-face in
    Canada, USA, Kazakhstan, PRC, HK, Singapore,
    Malaysia
  • Teaching Actuarial Control Cycle students in many
    countries via internet
  • SoA Course 7 Seminars 2001-2006
  • UK Professions CA2 seminars 2006-2009
  • Grad Dip Ed Masters in Higher Ed
  • Academic focus student learning

5
What is teaching?
  • On reflection three main stages in my
    development as teacher
  • Different focus at each stage
  • 1) Mastering the content
  • 2) Achieving better communication of the content
  • 3) Getting learners doing the sorts of things
    that will result in them learning what we want
    them to learn

6
Characteristics Stage 1
  • Teacher must know the content thoroughly, and be
    able to answer any question that students might
    ask
  • Different learning outcomes some students learn
    well and others not so well are due to
    differences between students
  • There are good and poor students
  • Students role is to attend classes, listen
    carefully, take notes, read the textbook, do the
    exercises and
  • regurgitate it accurately in the exam!

7
Characteristics Stage 2
  • Now more comfortable with the content
  • Emphasis on transmitting that content more
    effectively
  • Focus on developing teaching capabilities
    better lectures, better lecture notes, more and
    better exercises for students, clearer
    explanations, from OHP to PowerPoint, IT-enhanced
    learning, etc
  • Central focus still on teachers activities

8
Characteristics Stage 3
  • Teaching expertise has no value if no learning
    takes place
  • No longer possible to say
  • I taught these students about Markov chains last
    term but they didnt learn a thing!
  • What does it mean to learn or understand?
    How best to support, and test for, the
    achievement of understanding?
  • Role of teaching is to stimulate and facilitate
    learning
  • Analogy between teaching and coaching a sporting
    team coach can help by guiding and advising but
    students/athletes must perform

9
What the student does
  • It is helpful to remember that what the student
    does is actually more important in determining
    what is learned than what the teacher does.
  • Thomas J Shuell (1986)

10
What is the curriculum?
  • Much discussion of actuarial education focuses on
    knowledge content
  • Knowledge content is just one (small) component
    of the curriculum
  • Three major components
  • 1 Desired learning outcomes
  • 2 Assessment tasks (how we evaluate how well the
    desired outcomes have been achieved)
  • 3 Teaching/learning activities

11
1 Desired learning outcomes
  • What do we want our students to know and be able
    to do?
  • Not just knowledge content
  • What do we want our students to be able to do
    with that knowledge?
  • What capabilities do our students need to be
    developing?
  • What capabilities are needed to practise as an
    actuary?
  • Need for capabilities is implied by fitness
    for purpose and (eg) by Solvency II emphasis on
    modelling process rather than models

12
2 Assessment tasks
  • Assessment is in several ways the most important
    of the three components
  • To many of our students, assessment IS the
    curriculum!
  • Assessment speaks louder than words
  • Conventional examinations are not well suited to
    assessing many of the capabilities our students
    need to be developing
  • Its not about the numbers!
  • What do the numbers mean?
  • Words! (Why?)

13
3 Teaching/learning activities
  • Gradual move away from conventional lectures to
    workshops (even for up to 500 students)
  • Students are actively involved
  • If there are too many students for all to
    interact with the teacher then have students
    interact with each other (teach each other)
  • Old adage Best way to learn is to teach
  • Problem based approach (Heres a problem )
  • Students think about and tackle the problem
    individually, then discuss in groups of 2 or 3
  • Teacher models solving the problem (start with
    blank OHP transparency and talk it through)
  • Tension with need to cover the syllabus

14
What are actuarial capabilities?
  • Presentation at joint GC/IAA education seminar in
    Tallinn (May, 2009)
  • Bridging the Gap Between Theory and Practice
    (Enrique de Alba, 2009)
  • Outline of an investigation undertaken for a
    Mexican insurer
  • Find a way to price earthquake risk for insurance
    purposes
  • Premium and probable maximum loss
  • Involved collaboration between academic
    actuaries, geophysicists, insurers and reinsurers

15
What are actuarial capabilities?
  • Capabilities required for successful completion
  • Up to date technical knowledge
  • Able to perform complex modelling (process)
  • Collaborate with other experts (eg insurers,
    geophysicists, reinsurers)
  • Communicate results to a range of audiences
  • Appreciate the broad context of the problem
    (regulation, insurance, reinsurance, local,
    global)
  • Research capabilities (diligent, systematic,
    careful, reflective)
  • Ready to try different approaches (flexible,
    creative)
  • Professional (standards of practice, code of
    conduct integrity, care, skill, responsibility)
  • Such capabilities are unlikely to develop when
    the learning context is based purely on drill
    and practice exercises

16
What are actuarial capabilities?
  • Consider this list of personal abilities needed
    by engineers in the early part of their career
  • (Compiled by Moulton
    Lowe, 2005)
  • Being willing to face and learn from errors and
    listen openly to feedback
  • Understanding personal strengths and limitations
  • Being confident to take calculated risks and take
    on new projects
  • Being able to remain calm under pressure or when
    things go wrong
  • continued

17
What are actuarial capabilities?
  • Having the ability to defer judgement and not to
    jump in too quickly to resolve a problem
  • A willingness to persevere when things are not
    working out as anticipated
  • Wanting to produce as good a job as possible
  • Being willing to take responsibility for
    projects, including how they turn out
  • An ability to make a hard decision
  • A willingness to pitch in and undertake menial
    tasks when needed
  • Having a sense of humour and being able to keep
    work in perspective

18
A students perspective
  • A 2009 Macquarie Uni Control Cycle student,
    commenting on an excerpt from Trevor Thompsons
    IAAust Presidential Address
  • Trevor Thompson expresses surprise that there
    are so few actuaries who are also entrepreneurs.
  • I'm not at all surprised, at least for the ones
    who make it through the UK Part I exams it
    seems to me that the exam process selects people
    with the ability to memorise detail, use
    calculators fast and accurately and take
    meticulous care in complicated calculations.
    These may well be good skills for actuaries to
    have (at least in the pre-computer days), but I
    would guess that they rarely come together with
    the skills of the entrepreneur.

19
A key ingredient Feedback
  • Students receiving timely and relevant feedback
    on their learning so far and acting on that
    feedback
  • Feedback from whom?
  • Possible sources of feedback teachers, teaching
    assistants (usually more senior students), fellow
    students (peers), self
  • Learning to give, and to receive, peer feedback
    is valuable preparation for the workplace and for
    professional responsibilities
  • Old adage The best way to learn something is to
    teach it!
  • A small tip Use green (or any colour but red!)
    for annotating students work with comments

20
Implications for actuarial learning
  • Actuarial students are more likely to develop the
    desired capabilities if their learning is more
    active than passive more discovering than
    reproducing
  • Suggests a problem based approach
  • Education for other professions (and
    quasi-professions) is often problem based
  • eg medicine other health sciences engineering
  • Problem Based Learning (PBL)
  • PBL has not yet been tried in actuarial education
    (to the best of my knowledge)
  • Perhaps not suitable for new high school leavers
    what does an actuary do?
  • Other weaker forms of problem based
    learning are possible

21
Extent to which learning is problem based
Weaker
Stronger
eg traditional exercises
eg PBL (as in medicine)
Problem characteristics Narrow context Clear
definition Clean data Correct solution
Large number of smaller problems Solved
individually No need to interpret Not ongoing
Problem characteristics Broad context Fuzzy
definition Dirty data Multiple solutions
Small number of larger problems Solved in
teams Interpretation? Ongoing
22
Classes of problem
  • 1) Standard or familiar Problems that students
    have seen or attempted previously numeric and
    other values have been changed
  • 2) Slightly different Problem is changed such
    that standard formulas, equations and processes
    need to be modified some understanding of basic
    principles required
  • 3) Significantly different A shift or transfer
    is required in application of basic principles
    formulas, equations and processes need to be
    constructed from a good understanding of basic
    principles
  • Example Application of rate interval concept
    to economic forecasting
  • How do we help students to make the shift from 1
    through 2 to 3?

23
Making the shift
  • How do we set up learning in such a way that
    students cannot avoid focusing on the underlying
    meaning instead of just manipulating symbols?
  • What is the best way to change students
    behaviour?
  • Change the nature of assessment
  • Key Ask for translations from mathematics into
    words ask what it means in your own words
  • Ask for explanations to different stakeholders
    peers (other students), non-technical people
    (clients, policyholders, journalists), senior
    actuaries, etc
  • Ask why?, how?, what if ?, etc
  • Process of explaining (teaching) leads to better
    understanding (learning)
  • Yes it takes longer to read and assess!

24
University/profession relationship
  • Some thoughts on the relationship between the
    profession and university programs
  • Recognising a whole degree program
  • A principles-based approach to accreditation
  • Quality learning materials through collaboration

25
Recognising a whole degree
  • Currently IAAust awards exemptions from
    professional subjects individually
  • For example, a grade of a minimum level (say, B)
    in a specified university subject earns an
    exemption from Subject CT5
  • Problem Creates actuarial degree programs with
    two classes of subject exemption and
    non-exemption subjects
  • Implicit message Learning in non-exemption
    subjects is not important to becoming an actuary
    and is not valued by the profession
  • Solution Recognise a whole degree (as other
    professions do law, medicine, accounting, etc)

26
Accrediting university programs
  • Adopt a principles-based approach
  • ltActuarial organisationgts approach to
    accreditation of university actuarial education
    is principles-based rather than relying on
    prescriptive rules. A principles-based approach
    is one that emphasises learning outcomes in
    setting educational requirements and
    expectations, but does not seek to specify or
    prescribe the exact manner in which those
    outcomes must be achieved.
  • Adapted from APRAs approach to regulation

27
Accrediting university programs
  • Current approach Universities seeking
    accreditation are asked to demonstrate that their
    programs cover a minimum proportion of the
    detailed, micro-level, knowledge-based syllabus
  • Recommended approach Universities seeking
    accreditation are asked to demonstrate how their
    programs support development of the specified
    learning outcomes (capabilities) and how the
    achievement of those outcomes is assessed
  • Universities are encouraged to be innovative (not
    necessarily uniform) in how they educate future
    actuaries

28
Generating cases problems
  • Imagine
  • the experience, energy and time currently spent
    by volunteer actuaries on writing course notes,
    exercises, model solutions, exams and model
    answers, reading and marking exam answers,
    setting pass/fail cut-offs, in committee
    meetings
  • is invested instead in writing case studies,
    real world problems, role plays and research
    assignments, building or adapting data sets to
    support them, and writing model solutions
  • (in collaboration with university teachers)
  • so that students can practise applying their
    technical knowledge
  • (at a level appropriate to their stage of
    development)
  • Existing example UK subject CA2 (Model
    documentation, analysis and reporting)

29
John Dewey said
  • learning is based on discovery, guided by
    mentoring, rather than on the transmission of
    information

30
Conclusions
  • Anyone who teaches actuarial students operates at
    the intersection of two academic disciplines
    actuarial science and education
  • A question for both university actuarial programs
    and professional bodies
  • Is expertise in one of those areas good enough
    for a teacher of future actuaries?
  • What the student does is actually more important
  • Good actuaries have broader capabilities than
    just technical expertise
  • Assessment speaks louder than words
  • Problem based learning supports capability
    development
  • When evaluating university actuarial programs,
    professional bodies should focus less on
    syllabus coverage and more on learning outcomes

31
What do you think?
  • John Shepherd
  • jshepher_at_efs.mq.edu.au
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