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Listed scholarships with the CRC for Forestry

New scholarships - June 2008

The CRC for Forestry is currently advertising 21 scholarships in areas as diverse as new technology adoption, forest health surveillance, truck design, water relationships in plantations, alternative harvesting systems, eucalypt genomics, managing contractors, subtropical silviculture, logistics planning, biogeochemical cycling in streams, tracking technology, insect biodiversity, gene flow and chemical insect ecology...

All of the following scholarships are available now, to commence in 2008.

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Managing and monitoring for growth and health

Learn more about Research Programme One
Programme Manager: Dr Mark Hunt, phone (07) 5482 0877

Project 1.2:

Linking tree health and growth in Pinus radiata plantations: application to productivity assessment and forest health surveillance

University of Melbourne, one PhD scholarship

This project will examine the physical and physiological effects of Essigella attack on Pinus radiata and relate these effects to the methodologies used in forest health surveillance and inventory assessment programmes. The aim is to develop relationships for predicting the effects of Essigella on long-term productivity. These relationships will also be used to calibrate remote-sensing imagery that is being developed to measure changes in crown condition following pest attack.

The student will be expected to develop working hypotheses that are based on the current understanding of relationships between pest attack and physiological responses to that attack. He or she will also be expected (and have a free hand) to develop the direction of the science in novel ways that advance our knowledge in this area.

The student will have access to a range of relevant supplementary data gathered by other researchers involved in Research Programme One. A study area has been selected at Green Hills near Tumut in a plantation that is severely affected by Essigella. The student will also be encouraged to develop studies in other plantations affected by Essigella in different environments to extend the generality of the findings from the study, and also liaise with a post-doctoral fellow undertaking parallel studies with spring needle-cast "disease" in P. radiata.

For more information contact: Dr Peter Ades (03) 8344 5036 or Dr Ian Smith (03) 9450 8647
See also University of Melbourne

Plantation site and resource evaluation

University of Melbourne, one PhD top-up scholarship

Areas for research include using current and emerging technologies to monitor and measure tree growth and environmental site variables important to plantation productivity, to quantify the effects of forest growth on water, soil nutrients and carbon through successive plantation rotations, and to capture this information into decision support tools for future management.

For more information contact: Dr Tom Baker (03) 9250 6836

­Project 1.3:

Overstorey/understorey water relations in eucalypt plantations

University of Tasmania, one PhD top-up scholarship (the possibly exists that a full scholarship may be developed in this area).

The aim of this project will be to work with an existing team of researchers and modellers to develop a model of forest water use that accounts for overstorey and understorey interactions and the implications for forest water use and streamflows. Current process based models predict overstorey water use well, but don't deal with understorey. However, understorey water use can be a significant contributor to total evapotranspiration, particularly in young forests or in forests with low leaf area. In these cases accounting for understory water use is critical if accurate assessments of catchment water yield are to be made. Nationally, water is a critical resource and focus has turned to the significant role forested areas have in supply water - this PhD will interact with scientists in the Water project of the CRC for Forestry (Research Programme Four) and make a key contribution to exploring the effects of disturbances such as fire and forest management on water security.

For more information contact: Dr Tony O'Grady (03) 6226 7963


High-value wood resources

Learn more about Research Programme Two
Programme Manager: Dr Chris Harwood, (03) 6226 7964

Genomics of eucalypt wood properties

University of Tasmania, one PhD top-up scholarship

This is an exciting PhD research project involving the development of genomic technology that benefits tree improvement. The project involves a large population of Eucalyptus globulus trees that will be used to investigate the association of wood properties and sequence variation in candidate genes.  The PhD project will involve developing genomic tools to help: choose better candidate genes; conduct association genetics; validate associations; and help integrate molecular and quantitative information into breeding programs. We seek a highly motivated PhD student interested in working closely with a multi-disciplinary team of researchers integrating molecular, population and quantitative genetics into tree genomics.

For more information download the flyer or contact: Associate Professor René Vaillancourt (03) 6226 7137 or Dr Dorothy Steane (03) 6226 1828.


Silviculture of subtropical eucalypt plantations

Australian National University, one PhD top-up scholarship

This scholariship is available from the School of Botany and Zoology at the Australian National University, with support from the CRC for Forestry, to help a student working on the ecology and physiology of sub-tropical eucalypt species in plantations. High-value timber species are increasingly being grown in the subtropics but our understanding of the basic biology and silviculture of these species has not kept pace with their uptake in plantations. Recent research into the application of green crown pruning to improve wood quality demonstrates that sub-tropical Eucalypts, like the temperate species studied before, can maintain similar growth rates to unpruned trees following up to 50 per cent crown removal. This remarkable ability to withstand defoliation holds promise silviculturally, but also deserves further investigation. How well do Eucalypts – sub-tropical or temperate - respond to repeated defoliation? To what extent does site quality or seasonal climatic variation affect their ability to recover from defoliation? To what extent do species differ in their ability to compensate for defoliation under a range of realistic growth conditions?

We are looking for a highly motivated PhD student with a strong background in forestry or plant ecology (BSC Honours or equivalent) to join us in investigating the above questions. Broad understanding of plant biology, preferably including ecology, evolution and physiology, demonstrated ability to conduct field-work, and independent research experience are desirable. The project will apply techniques of environmental plant physiology in both field and glasshouse based studies.

Application deadline: 30 July 2008

Start date: Mid-year 2008 or early 2009.

The principal supervisor will be Dr Adrienne Nicotra, who can be contacted for further information by email or on (02) 6125 9763

Effect of silviculture on wood properties in eucalypt plantations managed for high-value timber production.

University of Melbourne, one PhD scholarship

This project will contribute new knowledge to underpin the development hardwood plantations in Australia for timber production, particularly at the critical interface of silvicultural management, wood properties and processing/utilisation. Advances in processing technology for small logs and the imperative of economies of scale in mill size are causing a reconsideration of the optimum management regimes regarding stand density and tree/log size.

The project will focus on temperate species, and can draw on longer-term field experiments in Victoria, Tasmania and Western Australia. The focus species is Eucalyptus globulus, but where useful comparisons with for example E. nitens or E. viminalis could be undertaken.

Opportunties for research include (i) studies of the interacting effects of genetics, site-quality, thinning and fertiliser application on cell-level wood properties that are recognised as affecting sawing and drying performance, (ii) within-stand environmental and competition effects on tree crown shape/balance and consequently wood properties, and (iii)  processing studies  that evaluate the impact of  genetics.

The project offers a full APA(I)-equivalent stipend, and project-specific operating costs. It is also supported by industry participants through in -kind access to field experiments and data.

Principal supervisors will be Dr Tom Baker, School of Forest and Ecosystem Science, The University of Melbourne, and Dr Russell Washusen, CSIRO .    

For more information contact: Dr Tom Baker (03) 9250 6836

The phenology and physiology of branch senescence and occlusion: risk of defect in plantation eucalypts

University of Tasmania, one PhD top-up scholarship

This project is about developing an understanding of branch senescence, shedding and occlusion as it relates to the risk of defect in eucalypt clear- or knot-free wood that forms after branches are abscised or pruned from the tree stem. The student will research the physiology of senescence. Science outcomes will inform management regimes for solid-wood production from eucalypt plantations, including decision support to assist forest managers in selecting a regime that minimises the risk of defect. This is an opportunity to combine strategic research with applied outcomes, to undertake research across a range of disciplines (physiology, pathology and modelling) and to work with an active research group that seeks to maximise the value of wood harvested from Australia’s rapidly expanding eucalypt plantation resource.

Principal supervisors will be Dr Caroline Mohammed (University of Tasmania/CSIRO) and Dr Chris Beadle (CSIRO).

For more information contact: Dr Caroline Mohammed (03) 6226 7954



Harvesting and operations

Learn more about Research Programme Three
Programme Leader: Mr Mark Brown, (03) 5321 4188.

Join a growing industry!

Australia is experiencing a boom in forest harvesting and transportation operations, which are set to double over the next five years due to recent increased investment in plantations, new mills, added value production facilities and export facilities planned and coming online over the next five years.

The best knowledge and technology is needed to meet the challenge of implementing and running these operations, to allow the Australian forest sector to be profitable in an increasingly competitive world market and to grow into a world leader.

To meet these demands and expectations, the CRC for Forestry seeks skilled people and experts from a wide range of backgrounds, many not traditionally linked to forest operations, to fill a series of postgraduate positions working with existing research teams.  A key component of these projects will be to engage extensively with industry throughout the project so that results can be readily applied on an operational level. Such strong industry contacts, coupled with a world class postgraduate degree, will undoubtedly lead to excellent employment opportunities.

If you have a project idea you would like to discuss please feel free to contact us. Below are a few projects which already have industry support and for which we seek an appropriate candidate.  We look forward to welcoming you to our growing team, serving a growing industry!

Optimised performance-based, designed trucks for forestry transportation in Australia

Technical background: mechanical engineering
Research area: machine design, vehicle dynamics, lightweight materials

New truck transportation efficiency regulations are coming into place in Australia whereby vehicles must meet certain performance criteria (rather than the traditional prescriptive approach).

This new approach presents an opportunity to design purpose-built forestry tractor-trailers, optimised for the needs of the industry, which allow for maximum productivity at minimum cost.  The project would entail:

  • the evaluation of industry needs, including evaluation of products to be hauled, road typed used and distances;
  • creation of an innovative conceptual design of a trailer or trailers to fit the forestry operational requirements and to fit within the performance based standards;
  • dynamic modelling of the vehicle to complete the conceptual design within the performance based standards and finalisation of the designs for prototyping;
  • field testing of the prototype to confirm that it meets the performance based standards and forest operational needs and expectations;
  • final trailer(s) designs and governmental applications for industry wide use.

Optimised logistic planning and management for forestry transportation

Technical background: engineering, computer science, supply chain management
Research area: logistics, supply chain management, optimisation, programming

With increasing harvest levels and larger export and processing facilities, the forest industry faces some unique logistical challenges. Unlike most transportation models, forestry is faced with moving loading points, uncertain and variable volumes to transport, and multiple service providers delivering to a single point of delivery often with varying demand and capacity. Handling such logistical challenges manually has led to significant bottle necks in the transportation system, reduced productivity and increased costs. This project would entail:

  • Evaluation of the current industry situation for transportation logistics:
    • how planning and scheduling is done,
    • how changes in the plan are managed,
    • what inefficiencies are encountered and their cost.
  • Researching alternative international approaches to similar transportation logistic situations.
  • Developing a logistic planning and management tool tailored to optimise forestry transportation on a contractor, company and/or regional level.
  • Validation of the tool by testing with real industry data.
  • Field testing of the tool in an operational setting.
  • Creating an implementation plan for the forest industry.

Affecting change with contractors while maintaining an independent business relationship

Technical background: business, law, sociology, psychology
Research area: business relationships, effecting change with limited influence

The reality for a majority of forest operations in Australia is that landowners rely on independent contractors to conduct operations on their land. This results in certain limits on the control that the land managers can enforce in the operations on their land. Land owners increasingly are large companies with the interest and capability to invest in research to improve operations, but they must work with their contractors to effectively implement the results. Both landowners and contractors see benefit in working together to implement the results but often experience challenges in how to equitably share the gain, how to share information and how to maintain their business independence. The project would entail:

  • An industry survey to establish the range of land owner / contractor relationships in the Australian forest industry.
  • An international literature search to identify alternative relationship models.
  • Research and understand the legal and social limitations on the landowner / contractor relationship.
  • Develop and field test a set of landowner / contractor interaction models to foster cooperation and implementation of change in work method and technology.
  • Based on field tests, develop a model or a set of models for landowner / contractor business relationships to foster cooperation and change.
  • Create an implementation model for the forest industry.

Promoting the acceptance and adoption of new technology and work methods within the forestry workforce

Technical background: sociology, psychology
Research area: change management, motivating people to change

It is human nature for people to stick to what they know and understand because it feels comfortable and safe.  Those in the forest industry are no different and often attempts to implement new technology or work methods fail, not because of the method or technology but because it is too difficult to get people to adapt.  With significant investment in research, like that being done at the CRC for Forestry, the Australian forest industry wants to be in the best position possible to implement the results in order to gain the greatest benefit possible from that research investment. This project would entail:

  • A survey of all levels of the forest industry work force to better understand their perceptions, motivators, concerns, understanding, etc.
  • Investigating change implementation methods in other sectors and from other parts of the world.
  • Developing methods and guidelines for implementing change, new technology and new methods in the Australian forest industry.
  • Testing methods with different forest operations and different levels of the workforce.
  • Developing guidelines to implement different levels of change with different levels of the workforce for use by the Australian forest industry.


Quantify the impact of alternative harvesting systems on the production capacity, cost and effectiveness of harvest operations

Technical background: forest science, forest management
Research area: machine productivity, network analysis, harvesting system design

Forest harvesting operations are faced with a wealth of equipment and technology to choose from to conduct their operations, and an even greater range of ways this equipment and technology can be combined to form harvesting systems. All systems can be effective at some level in harvesting in different stand conditions but little information is available as to which systems are the most effective and efficient in particular conditions. Building a knowledge base about what equipment and systems are best suited to different Australian operating conditions and understanding what stand factors have the greatest impact on the different equipment types is critical to allow the forest industry to use the most cost effective systems in harvest planning and management. A project would entail:

  • Surveying the range of operating conditions where the technology or system of interest is used in Australia.
  • Shift level and detailed time and motion studies on the range of operations where the technology or system is used.
  • Analysis of results to determine factors impacting upon efficiency and to identify those conditions that resulted in the best performance.
  • If appropriate based upon the analysis, test the technology or system in conditions outside its normal range to further confirm factors impacting upon efficiency and/or find an optimal Australian operating condition.
  • If appropriate, test alternative systems in similar conditions to benchmark technology or system performance.
  • Populate a decision support tool for industry to use study results to make improved planning and management decisions

Implementation of operational tracking technology for improved resource management and machine productivity

Technical background: forest science, forest management
Research area: automated data capture, operational management, inventory modelling, equipment evaluations

The key to having effective planning and management is access to good information in a timely manner.  This has traditionally been difficult and expensive in forest operations, with much of the required data for informed decisions being collected manually.  In many cases, the cost and time associated with collecting information forces operations to make key planning and management decisions based on estimates rather than real data.  Technology is becoming available to address many of these issues where information can be collected automatically, quickly and cost effectively.  One example of this is onboard tracking technologies for harvesting equipment that can collect a range of information on machine use, machine productivity, operational location, tree size, travel speed, etc.  This technology has seen limited application in Australia due to a lack of knowledge around its use, how it fits in the Australian context and how it can be integrated with existing systems. The project would entail:

  • An international technology search to learn what technology is available in machine tracking.
  • Evaluation of the Australian forest industry to establish its information needs, current information collection, planning and management tools.
  • Identify existing range of technology that can address the range of industry needs and identify technology development required to address existing needs in Australia not met by existing technology.
  • Field test appropriate technology with industry and develop implementation guidelines and procedures for the Australian forest industry.
  • Identify new opportunities for using operational tracking technology to aide plantation and/or native forest resource management information systems.

For more information contact: Mr Mark Brown, (03) 5321 4188.


Trees in the landscape

Learn more about Research Programme Four
Programme Manager: Professor Brad Potts, (03) 6226 2641

Water

Biogeochemical cycling and habitats in small headwater streams - assessing the effects of forest management

University of Tasmania, one PhD top-up scholarship

Water

 


Small headwater streams are numerous, and in forested catchments their ecology is driven by organic carbon derived mostly from bank-side trees and shrubs. Harvesting forests results in inevitable changes to the way carbon and nutrients are moved into and out of such small streams, but there is little information to determine whether these changes matter to the functioning of these stream ecosystems. This research project aims to evaluate the effectiveness of current and proposed forest practices in protecting the ecosystem functioning of small, headwater streams in tall, wet forests subject to harvesting and regenertion to native forest.

This project will draw on more than four years of research generated from extensive space-for-time surveys and will focus on seven streams in and around the Warra long-term ecological research site in Tasmania's southern forests that will have been monitored continuously for at least three years before this project starts. This provides a unique opportunity to conduct rigorous before-and-after assessments of the responses of headwater streams to contemporary forestry practices in native forest harvesting systems, and will be a crucial component of research to validate the hypotheses generated from the previous surveys.

The specific components of this research include:

  1. Measurement of the changes to the hydrology and in-stream habitats of streams before and after harvest.
    Investigation of how the processing and transport of particulate carbon is altered during the different phases of the harvesting and regeneration operations.
    Quantification of the metabolic and microbial changes resulting from harvesting.
  2. Assessment of the likely changes in nutrient regimes engendered by harvesting.

Accordingly, this project is likely to use a variety of approaches, including streamflow and water quality monitoring, nutrient/dye tracing, detailed geomorphic assessment, measurements of soil movement, vegetation survey, and multi-scale measures of nutrient cycling and carbon cycling and metabolism.

The student will be part of the CRC for Forestry and will be located at the School of Zoology, University of Tasmania. The Forest Practices Authority and Forestry Tasmania will provide support. The project will require extensive fieldwork; accordingly a current driver's licence, an ability to walk on rough tracks in thick bush, and a perparedness to spend nights away from Hobart are essential. Prospective students will have a background in ecosystem process research in aquatic ecology or hydrology, with some ability in empirical modeling. Several complementary projects on forest hydrology and in-stream processes will be running concurrently, and should provide a rich, stimulating environment to conduct this exciting and valuable research.

For information on the project, contact: Dr Leon Barmuta (03) 6226 2785, Dr Peter Davies (03) 6225 4660.

Biodiversity

Restoration ecology:

Insect biodiversity and plantation health

Melbourne University, one PhD scholarship

This PhD will examine management options incorporating plantation, adjacent remnant vegetation and surrounding landscape factors to improve biodiversity, plantation growth and overall health. Important elements of this PhD will examine insect pest species within plantations and insect predator complexes within remnant vegetation and the surrounding landscape matrix. Based on findings, management prescriptions for plantations based on adjacent remnant native vegetation and surrounding landscape factors could potentially be developed to conserve and improve levels of natural predator populations to eliminate or reduce the impacts of damaging outbreaks occurring.

Contact Mr Nick Collett (03) 9450 8642.


Environmental genetics:

Genetic diversity in eucalypts

University of Tasmania, one PhD top-up scholarship

­­Forest dominated by Eucalyptus obliqua is widespread in Tasmania and south eastern Australia. In Tasmania it is one of the main native forest types managed for wood production and a variety of silvicultural regimes are used. Artificial sowing of harvested seed is common but because of erratic seed crops, sourcing "on site" seed is not always possible. A system of seed transfer zones has therefore been developed based on environmental and geographical parameters. This project will examine the level of genetic differentiation between populations across the native range of the species to improve seed transfer guidelines and provide base-line data on genetic diversity to compare managed and unmanaged native forests. This PhD will study the broad-scale molecular genetic differentiation across the range of this species in south eastern Australia, the level of genetic differentiation associated with current seed zones in Tasmanian production forests, and the importance of local differentiation and gene flow. Adaptive traits have been assessed in long-term progeny trials of this species, allowing a unique opportunity to compare differentiation in molecular and adaptive traits associated with fitness.

For more information download the flyer or contact: Associate Professor René Vaillancourt (03) 6226 7137), Dr Dorothy Steane (03) 6226 1828 or Professor Brad Potts (03) 6226 2641, School of Plant Science.

Research funds may also be available to back external scholarships to study in other areas of eucalypt genetics.

Eucalypt gene pool management - genetic diversity in ash group eucalypts (E. regnans and E. delegatensis)

University of Melbourne, two PhD scholarships, one full and one half scholarship

Mountain ash (E. regnans) is the tallest of all flowering trees. This tree species, and the related alpine ash (E. delegatensis), are keystone species of the wet montane forests of south-eastern Australia. Significant areas of forest dominated by both species are managed for wood production and typically regenerated by aerial sowing after harvesting. Shortages of “on-site” seed have meant that seed may be transferred from other locations within seed zones in Tasmania or according to transfer guidelines in Victoria. These have been based on environmental and geographic criteria but their correspondence with the patterns of genetic variation within each of these species is not well understood. The devastating bushfires of 2003 and 2007 have created an acute problem because very large amounts of seed are required to regenerate fire-killed forest.

Several research projects on the ash eucalypts could be fully funded or involve top up funding for students holding an external scholarship. These projects include:

  • investigating the adequacy of the current seed zones and seed transfer guidelines,
  • determining baseline genetic diversity, geographic structure and the effects of silvicultural management on diversity,
  • relating patterns of genetic variation to environmental characteristics throughout the ranges of the species,
  • investigating the relationships between cold tolerance, field survival and the effects of climate change, and
  • quantifying levels of gene flow.

For more information contact: Dr Peter Ades (03) 8344 5036.

Gene flow from eucalypt plantations

With the rapid expansion of eucalypt plantations in Australia over the last decade, there is an urgent need for strategies to assess and manage the risk of exotic gene flow into native eucalypt populations.  The CRC for Forestry has full- or top-up scholarships available in this research area at the University of Tasmania, located in Hobart, and Southern Cross University, located on the north coast of NSW (Click here for more on the subject).


University of Tasmania, one PhD top-up scholarship

Projects are available assessing the risk of genetic pollution from either Eucalyptus nitens (click here for previous studies) on the island of Tasmania, or Eucalyptus globulus (click here for previous studies) plantations across southern Australia (Click here to learn more about recent activity in the CRC for Forestry project on management of the risk of gene flow from eucalypt plantations).

For more information contact: Professor Brad Potts (03) 6226 2641, Associate Professor René Vaillancourt (03) 6226 7137 and Dr Robert Barbour (03) 6226 2646, School of Plant Science.

Southern Cross University, one PhD full and/or top-up scholarship

A project is available on assessing the risk from Corymbia plantations (read more) in NSW and Queensland.

For more information contact: Dr Mervyn Shepherd (02) 6620 3412, Dr Ross Goldingay (02) 6620 3776 or Dr Robert Barbour (03) 6226 2646


Chemical ecology:

The chemical ecology of attractants for the management of eucalypt feeding insects in plantations

University of Tasmania one PhD top-up scholarship

 

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This project seeks to investigate the chemical ecology of attractants used by insect pests of eucalypt plantations and their natural enemies. Insects are among the most odour-reliant animals on our planet. They use chemical odours (info-chemicals) to communicate with others of their own kind (eg pheromones), as well as to locate essential resources (eg kairomones). Knowledge of the function of these systems and of the molecular structure of the chemicals involved provides the basis of highly selective techniques of pest control.Chemical ecology research at the University of Tasmania and CRC for Forestry has recently advanced through the purchase of electroantennographic detection (EAD) equipment that can screen for odours which elicit a response in the antennae of an insect. By coupling the EAD with a gas chromatograph (GC-EAD) the chemical composition of these biologically active compounds can then be simultaneously identified. When combined with behavioural observations, this exciting area of research promises to deliver new methods of pest control. Currently, insect pest control in Australian forests relies heavily upon broad-spectrum insecticides. These insecticides are incompatible with maintaining populations of native beneficial insects and achieving biotic regulation of pest populations. Info-chemicals offer ways of controlling pest populations that are benign to beneficials because they only interfere with the responses of the target insect. By producing synthetic copies of insect info-chemicals, they can be deployed to either mass trap, disrupt communication or to repel an insect pest and/or to attract natural enemies into an area to achieve better biological control. One of the major groups of insect pests of Australian eucalypt plantations are the leaf-feeding beetles belonging to the family Chrysomelidae. The info-chemicals used by these beetles and their natural enemies are largely unknown and will form a major focus of this project.

Contact: Dr Geoff Allen (03) 6226 2732