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Earth Sciences @ Liverpool

 

An important part of the TRIADS dissemination strategy is to increase the chances of other earth science departments adopting the system, by providing exemplar assessments that address their own broad needs. Rather than develop individual assessments for each department, it is more efficient to develop assessments that address generic learning outcomes relevant to many departments. Thus, as part of the TRIADS project, all UK HEI earth science departments were contacted by standard mail using an existing network of contacts established by the TLTP-funded UK Earth Sciences Courseware Consortium (UKESCC). These representatives were provided with some background information, registration of interest forms, and five "Learning Outcomes" survey forms for the subject areas sedimentology, palaeontology, map interpretation, crystallography, and igneous phase diagrams.

The survey forms included sample learning outcomes under headings Knowledge, Skills and Understanding, and provided space for respondents to add other desirable learning outcomes (see Fig. 1 below for a sample survey form). The aim of this exercise was to;

  • raise general awareness of the TRIADS project;
  • identify whether there are common learning outcomes;
  • identify potential collaborators (i.e. those who actually replied with learning outcomes feedback).

Of the 47 departments contacted, 15 ( 20 individuals) have so far responded, 12 (17 individuals) with learning outcomes feedback. Fig. 2 summarises responses to the suggested learning outcomes, and Fig. 3 shows the sort of additional information provided on other desirable learning outcomes for sedimentology. What is apparent from this survey, is that there are common, generic, learning outcomes in earth science subject areas across HEIs. For example, the suggested skill in sedimentology, "Ability to describe sediments & sequences", is generic because it does not state which sediments or sequences should be studied, simply that students should have the ability to describe such things. This skill in sedimentology is demonstrated in this survey as a desirable outcome across HEIs, and thus could be viewed as a benchmark in the terminology of Jackson (1997).

Figure 1

TRIADS Feedback Form

The form below lists some common learning outcomes for a typical introductory level sedimentology course. We would ask you to look through these and check the ones that you agree with and add others that you believe are appropriate but are not listed.

Common Learning Outcomes for Sedimentology
Knowledge
  • Classification of clastic sediments
  • Classification of limestones
  • Depositional processes
  • Diagenetic processes
  • Common vertical successions of sedimentary rocks
  • Mineralogy and textures of sandstones
Skills
  • Ability to describe sediments and sed. sequences in a concise and scientific way
  • Ability to analyse sed. structures and fabrics to interpret depositional processes
  • Ability to analyse petrographic fabrics to interpret diagenetic process and environment
Understanding
  • The sequence of physical processes active in different depositional environments
  • The depositional response to successive physical processes at a variety of scales
Please return to Dr. A.P. Boyle, TRIADS, Department of Earth Sciences, University of Liverpool, Liverpool L69 3BX. FAX: (0151) 794 5170 email: apboyle@liv.ac.uk

Figure 2. Summary table of responses from up to 14 UK HE institutions to common Learning Outcomes 'suggested' in the survey.

UK HE Institution

Plymouth

Stafford

Edinburgh

Bristol

Exeter

Anglia

Cheltenham

Sheffield

Liverpool JM

Aberystwyth

Aberdeen

Edge Hill

Derby

Liverpool U

%

Palaeontology: 11 institutions
Knowledge: Fossil Classification

y

y

y

-

-

y

y

y

y

-

y

y

y

y

100

Knowledge: Fossil Morphology

y

y

y

-

-

y

y

y

y

-

y

y

y

y

100

Knowledge: Fossil Names

y

y

y

-

-

n

y

y

y

-

y

y

y

y

91

Knowledge: Fossil Age Ranges

y

y

y

-

-

y

y

y

y

-

y

y

y

y

100

Skills: Accurate drawing of fossils

y

y

y

-

-

n

y

y

y

-

y

y

n

n

73

Understanding: Functional Morphology

y

y

y

-

-

y

y

y

y

-

y

y

y

y

100

Understanding: Evolution

y

y

y

-

-

y

y

y

y

-

y

y

y

y

100

Understanding: Use of fossils in correlation

y

y

y

-

-

y

y

y

y

-

y

y

y

y

100

Understanding: Use for palaeo-environmental analysis

y

y

y

-

-

y

y

y

y

-

y

y

y

y

100

Map Interpretation: 11 institutions
Knowledge: Representation of orientation data

y

y

y

y

y

y

y

y

y

-

-

y

-

y

100

Knowledge: Representation of Faults

y

y

y

y

y

y

y

y

y

-

-

y

-

y

100

Skills: Using Grid References

y

y

y

y

y

y

y

y

y

-

-

y

-

y

100

Skills: Constructing cross sections

y

y

y

y

y

y

y

y

y

-

-

y

-

y

100

Skills: Constructing stratum contours

y

y

y

y

y

y

n

y

y

-

-

y

-

y

91

Making accurate measurements from maps

y

y

y

y

y

y

y

y

y

-

-

y

-

y

100

Understanding: Interpretation of cross-cutting boundaries

y

y

y

y

y

y

y

y

y

-

-

y

-

y

100

Understanding: Determination of geological sequence from map

y

y

y

y

y

y

y

y

y

-

-

y

-

y

100

Understanding: Determination of structural history from map

y

y

y

y

y

y

y

y

y

-

-

y

-

y

100

Determination of igneous history from map

y

y

y

y

y

y

y

y

y

-

-

y

-

y

100

Sedimentology: 14 institutions
Knowledge: Classification of clastic sediments

y

y

y

y

y

y

y

y

y

y

y

y

y

y

100

Knowledge: Classification of limestones

y

y

y

y

y

y

y

y

n

y

y

y

y

y

93

Knowledge: Depositional process

y

y

y

y

y

y

y

y

y

y

y

y

y

y

100

Knowledge: Diagenetic process

y

y

y

y

n

y

y

y

n

y

y

y

y

y

86

Knowledge: Vertical successions of sedimentary rocks

y

y

y

y

y

y

y

y

y

y

y

y

y

y

100

Knowledge: Mineralogy and textures of sandstones

y

y

y

y

y

y

y

y

y

y

y

y

y

y

100

Skills: Ability to describe sediments & sequences

n

y

y

y

y

y

y

y

y

y

y

y

y

y

93

Skills: Ability to analyse structures & fabrics to interpret depositional processes

n

y

y

y

y

y

y

y

y

y

y

y

y

y

93

Skills: Ability to analyse petrogenetic fabrics to interpret diagenetic processes & environments

n

y

y

y

y

y

y

y

y

y

y

y

y

y

93

Understanding: The sequence of physical processes active in depositional environments

y

y

n

y

y

y

y

y

y

y

y

y

y

y

93

Understanding: The depositional response to successive physical process at a variety of scales

y

y

y

y

y

y

y

y

y

y

y

y

y

y

100

Crystallography: 7 institutions
Knowledge: Symmetry axes and planes

y

y

y

-

-

-

y

y

-

-

-

y

-

y

100

Knowledge: Symmetry classes

y

y

y

-

-

-

n

y

-

-

-

y

-

y

86

Knowledge: Miller Indices

y

y

y

-

-

-

n

y

-

-

-

y

-

y

86

Skills: Ability to draw nice pictures

n

n

y

-

-

-

n

y

-

-

-

n

-

n

29

Skills: Ability to plot crystal orientations on stereographic projections

y

y

y

-

-

-

n

n

-

-

-

y

-

n

57

Understanding: Relationship between crystal lattice structure & form

y

y

y

-

-

-

n

y

-

-

-

y

-

y

86

Understanding: Twin Laws

y

y

y

-

-

-

n

n

-

-

-

y

-

y

71

Phase Diagrams: 9 institutions
Knowledge: The phase rule

y

y

y

y

-

-

y

y

y

-

-

y

-

y

100

Knowledge: Construction of unary, binary and ternary phase diagrams

y

y

y

y

-

-

y

y

y

-

-

y

-

y

100

Knowledge: Basic terminology, solidus liquidus, eutectic, peritectic

y

y

y

y

-

-

y

y

y

-

-

y

-

y

100

Skills: ability to determine crystallization sequences

y

y

y

y

-

-

y

y

y

-

-

y

-

y

100

Understanding: The lever rule

y

y

y

y

-

-

y

y

y

-

-

y

-

y

100

 

 

Figure 3 TRIADS Feedback: Additional sedimentology learning outcomes suggested by survey respondents in addition to those listed on survey forms

 

Knowledge

  • Physical processes: fluid flow, sediment transport (Edinburgh, Exeter, Plymouth)
  • Recognition of sedimentary structures, types of ripple-cross stratification (Edinburgh, Derby)
  • Palaeocurrent analysis and bedforms (Bristol)
  • Deposition environments (Edinburgh)
  • Generation of clastic and carbonate grains (Plymouth)
  • Other types of sedimentary rocks such as evaporates, phosphates, ironstones and aragonite (Plymouth, Aberdeen)
  • Sedimentary facies (Edinburgh)
  • What is a sedimentary basin and factors affecting fill (Bristol)
  • Hazards, flood, sea-level rise, coasts and landslides (Bristol)
  • Modern sedimentary environments (Edge Hill)
  • Sources of sedimentary materials (Edge Hill, Derby)
  • Sequence stratigraphy and the influence of relative sea-level change (Aberdeen)
  • Elementary chemical and physical principles (Liverpool)

Skills

  • Ability to interpret sedimentary successions and facies (Bristol, Edge Hill, Aberdeen)
  • Correlation of sedimentary logs (Edinburgh)
  • Ability to produce a sedimentary sketch log for each environment (Bristol)
  • Ability to identify how a simple computer model is set up (Bristol)

Understanding

  • The factors controlling the composition, texture of sediments and rocks (Plymouth)
  • 3D models to aid understanding of lateral strike and depositional dip changes as well as vertical changes (Edinburgh)
  • Why sedimentology is useful commercially, environmentally and scientifically (Aberdeen, Bristol)
  • Recognition of ancient sedimentary environments (Edge Hill, Derby)
  • Recognition of processes of change (Derby)
  • Relationship between 2D and 3D, or 1D and 4D! (Liverpool)
  • How to relate observation to process (Liverpool)

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Alan Boyle
apboyle@liverpool.ac.uk
Date Last Modified: 3/12/04
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