最新糖心Vlog

On successful completion of this course students will be able to:

1.     Understand and explain basic principles underlying the physical, chemical and biological properties of soils in landscapes.

2.     Quantitatively assess and interpret soil characteristics from the landscape to the sub-paddock scale using relevant technologies, including satellite imagery on the landscape scale and emerging digital technologies (precision agriculture) on the sub-paddock scale.

3.     Undertake (individually, in pairs or groups) simple field sampling of soil and laboratory measurements of basic soil physical and chemical properties proficiently.

4.     Give a basic description of a soil profile and broadly assign this within the 最新糖心Vlogn Soil Classification system.

5.     Search and find (individually and within a team) relevant scientific and technical information in the context of management of soils for different agro ecosystems.

6.     Critically evaluate and confidently interpret soils data, maps and information especially in relation to identifying potential management issues for agro ecosystems and suggesting potential solutions. This relates to a range of scales, from landscape (e.g. land capability assessment) to sub-paddock (e.g. precision agriculture).

7.     Communicate effectively to individuals and in groups (orally and written) concerning the application of soil science in agro ecosystem landscape management.

8.     Integrate elements of knowledge and work to a deadline.

 

Protective clothing
Students are required to wear a lab coat and have closed foot wear for the practicals that are in the laboratories.  Boots, suncreen, hat and a waterproof coat are recommended for field practicals.

Books for this course (online or held in the the Waite Library)

We recommend one textbook (White RE, 2006, ‘Principles and Practice of SoilScience.’ Oxford 最新糖心Vlog Press: Melbourne) as being a suitable reference.

 
Other books you might find useful for following up on lecture material and for exam revision include:
 
Brady NC, Weil RR (2008) ‘The nature and properties of soils.’ (Prentice Hal: New Jersey)

Charman PEV, Murphy BW (2007) ‘Soils: their properties and management.’ (Oxford 最新糖心Vlog Press: South Melbourne)

Hall J, Maschmedt D, Billing B (2010) ‘The soils of southern South 最新糖心Vlog’ Bulletin 56, Volume 1 of the Geological Survey of South
最新糖心Vlog (Department of Water, Land and Biodiversity Conservation: Adelaide)

Hazelton P, Murphy B (2007) ‘Interpreting Soil Test Results What do all the numbers mean?’ (CSIRO Publishing: Melbourne) Available as an electronic book from CSIRO via the Uni of Adelaide library website.http://uadel.csiro.patron.eb20.com.proxy.library.adelaide.edu.au/Collections/ViewBook/3b2bf8b5-bcc3-4f58-8830-79982b2ac0be

Gilkes RJ, Hunt N (1992) ‘Farm monitoring handbook: A practical down-to-earth manual for farmers and other land users.’ (最新糖心Vlog of
Western 最新糖心Vlog: Perth)

Isbell RF (2002) ‘最新糖心Vlogn soil classification.’ (CSIRO Publishing: Melbourne) NOTE: this is also available electronically

McKenzie N, Jacquier D, Isbell R, Brown KM (2004) ‘最新糖心Vlogn soils and landscapes: an illustrated compendium’ (CSIRO Publishing: Melbourne). 631.4994 M1571a

Moore G ( 2004) ‘Soil Guide A handbook for understanding and managing agricultural soils.’ Bulletin 4343 (Department of Agriculture: Perth WA)

Peverill KI, Sparrow LA, Reuter DJ (Eds) (1999) 'Soil analysis:an interpretation manual.' (CSIRO Publishing: Melbourne)

Wild A (Ed) (1988) ‘Russell’s Soil Conditions and Plant Growth.’ (John Wiley & Sons: New York)




 

Addtional materials and references will be available via MyUni including recordings of lectures

This course will be delivered by the following means:

2 x 1 hour lectures each week consecutively on the same day

8 x 3 hour practicals sessions

3 x 1 hour quizzes held periodically throughout the semester

4 x 1 hour informal tutorial session over the semester on the same day as lectures


Lectures will be delivered online and will be supported by notes and reading materials provided online.

Practicals are used to develop and support material covered in lectures as well as providing a forum for acquiring skills and knowledge necessary to complete assessment tasks. Practicals particularly provide an opportunity to acquire hands-on skills, to integrate information from different modules in the course and to increase understanding of concepts.

Quizzes will test student understanding of material from lectures and practicals held during the semester. Each quiz will deal with material covered in the preceding weeks.

Tutorial (informal) sessions provide an opportunity for students in groups or individually to follow up specific issues regarding expectations on workload or assignments or to seek clarification of material from lectures and practicals. It will include the opportunity for open discussion, questions and problem solving activities with support materials provided online.

A student enrolled in a 3 unit course such as this should expect to spend, on average, 12 hours per week on the studies required. This includes the formal contac time  (lectures, tutorials and pracs) as well as non-contact time (reading & revision)

Lectures will focus on the function and significance of soils in Earth’s spheres and landscapes (managed and natural); the processes involved in the formation of soils from rocks and minerals; the basics of soil classification, the 最新糖心Vlogn classification system and relevance to management of soils; the fragile nature of 最新糖心Vlogn soils, the reasons underlying this and the implications for 最新糖心Vlogn landscapes; soil primary particles (the building blocks, how they contribute to soil texture and relevance to managing soils); soil structure and its importance in management of landscapes; soil colloids and effects on soil chemistry (e.g cation exchange); soil acidification and its management; the influence of atmospheric processes on soil water; major inputs and outputs of water in soils and how water is stored; causes and consequences of landscape salinization in 最新糖心Vlog; processes of soil erosion (by wind and water) and where it occurs; management practices to minimise erosion in production systems and landscapes; soil organic matter, its major functions, and its management in nutrient cycling (including crop rotations, vineyard management, pasture and grazing); how different fertilisers (types and formulations) contribute to soil fertility and fertiliser management of different soils in landscapes/production systems; hostile soils & subsoils as a feature of 最新糖心Vlogn landscapes and their management (sodicity calcareous soils, traffic hardpan, texture contrast, nutrient toxicities and deficiencies); sources, fate and control/amelioration of pollutants, contaminants and residues and a set of case studies to examine the current challenges for the management of soils in particular land systems in 最新糖心Vlog (horticulture, viticulture, broadacre cropping, livestock enterprises, irrigated systems). The importance of scale in soil management is addressed, along with the potential of emerging technologies, including remote sensing and precision agriculture.

Field based practicals will provide an introduction to the observation of soils and position in the landscape by examining a soil pit and collecting and analysing soil cores collected across a toposequence in the landscape. Practical laboratory tasks will include hand texturing and determination of soil colour (Munsell chart) for a range of soils; familiarisation with the use of the 最新糖心Vlogn soil classification system, measuring soluble salts in soils using EC and pH meters and understanding the various units used for measuring these characteristics, and using nutrient calculators to devise fertiliser budgets for crops and vines. Computer based practicals will be used to demonstrate how spatially variable soils are and how sampling strategy influences outcome of a soil property test and map databases will be use to integrate information on soil properties and the relationship to position in landscape.

Students are required to wear a lab coat and have closed foot wear for the practicals that are in the laboratories.  Stout shoes, suncreen, hat and a waterproof coat are recommended for field practicals .

Assessment Task	Task Type	Hurdle	Weighting	Learning Outcome	Approximate timing of assessment
Practical exercises x 1; Practical exercise and reports completed in  class x 7	Formative; Summative Formative and Summative	No	0% 30%	2,3,4,6,7	Wk 2 Wks 3, 4, 6, 7, 8, 10, 11
Quizzes x 3	Formative and Summative	No	30%	1,6,7	Wks 5, 9, 12
Examination	Summative	No	40%	1,6,7	Examination period

None.

Practicals (30% total assessment):

Eight practical exercises (computer based, field or laboratory) will be completed during class time. Each exercise will be undertaken in small groups (2-3 students) and will include a combination of short and long answer questions as well as calculations based on measurements collected during the practical session. Each practical exercise will be equally weighted. Prompt feedback (within 1 week) will enable early identification of any problems a student may be encountering in the area of practical skills for soil assessment or the reporting of these tasks, and give an opportunity to address these in the weekly informal tutorial sessions.

Quizzes (30%)

Three 1 hr quizzes (10% total assessment each) will occur during the semester. These will consist of a series of multiple choice questions, short answer and calculations to be answered online. These quizzes will allow students to continuously monitor their retention of important course material and highlight problem areas that can be addressed in the Workshop sessions.

Final Exam (40%)

The final exam is a summative assessment and allows the student to demonstrate retention of basic information taught during the semester as well as the ability to integrate the information obtained throughout the course. Exam questions will include a series of short and long written answers, calculations based on real life examples, multiple choice, and true/false answers.

Late Submission:

If an extension is not applied for, or not granted then a penalty for late submission may apply. A penalty of 10% of the value of the assignment for each calendar day that the assignment is late (i.e. weekends count as 2 days), up to a maximum of 50% of the available marks will be applied. This means that an assignment that is 5 days late or more without an approved extension can only receive a maximum of 50% of the marks available for that assignment.