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Field of Research : Humoural immunology and immunochemistry
Research Topic : MALARIA
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  • Funded Activity

    The Clag Gene Family Of P. Falciparum; Examining Roles In Cytoadherence, Rheological Properties Or Tissue Trophism.

    Funder
    National Health and Medical Research Council
    Funding Amount
    $451,980.00
    Summary
    There are approximately 500 million of cases of malaria per year worldwide and about two million deaths per year. Severe malaria including cerebral malaria is a major cause of death. It is caused by the sticking of red blood cells which contain malaria parasites to the lining of microscopic veins and blocking them; what happens after this is complex. The process of sticking is called cytoadherence. We have discovered a gene which is important in this process of sticking. We have called it by the .... There are approximately 500 million of cases of malaria per year worldwide and about two million deaths per year. Severe malaria including cerebral malaria is a major cause of death. It is caused by the sticking of red blood cells which contain malaria parasites to the lining of microscopic veins and blocking them; what happens after this is complex. The process of sticking is called cytoadherence. We have discovered a gene which is important in this process of sticking. We have called it by the acronym clag, for cytoadherence-linked asexual gene. Most Australians know of clag as a glue, and our data provides evidence that it sticks the parasitised red cells to veins via a protein called CD36 on the internal surface of veins. Our evidence for this has been published in two prestigious international journals. We propose here to examine the same gene in a mouse malaria model as it should be highly informative to see what effect destoying clag has on the disease in a living animal. Obviously this cannot be tested in people. It has now become clear that there are a number of slightly different clag genes and we do not know what the others do. We propose here that they may enable the parasitised red cells to stick to targets other than CD36 on the surfaces of veins, or affect blood flow of infected cells, or direct the parasitised red cells to other organs. The experiments that we propose should reveal whether these ideas are true.
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    Placental Malaria, Placental Function, Nutrient Transport And Fetal Growth Restriction

    Funder
    National Health and Medical Research Council
    Funding Amount
    $483,517.00
    Summary
    Malaria infection in the placenta impairs the baby's growth, probably by causing placental inflammation. We believe this inflammation interferes with the ability of placental cells to transport nutrients such as amino acids and glucose from mother to baby. We will test this by examining the expression of genes and proteins involved in nutrient transport in placental samples from pregnant women, and in cell lines, and will examine how malaria affects growth factors that control this process.
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    Gene Discovery For The Scabies Mite Sarcoptes Scabiei

    Funder
    National Health and Medical Research Council
    Funding Amount
    $1,110,000.00
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    Funded Activity

    Uncoupled Research Fellowship

    Funder
    National Health and Medical Research Council
    Funding Amount
    $690,000.00
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    Funded Activity

    Functional Characterisation Of A Maurer's Cleft Protein Involved In Adhesion Of Malaria-infected Red Blood Cells

    Funder
    National Health and Medical Research Council
    Funding Amount
    $160,500.00
    Summary
    Malaria is a serious disease that affects half of the world's population and frequently kills humans after a bout of high fever and coma. Many of those who die are young children who live in areas of the world where health care is very poor. The effectiveness of drugs that we currently have available to prevent or treat malaria is rapidly reducing and there is no vaccine available to prevent people from catching the disease. Our research is important because in order to make better medicines for .... Malaria is a serious disease that affects half of the world's population and frequently kills humans after a bout of high fever and coma. Many of those who die are young children who live in areas of the world where health care is very poor. The effectiveness of drugs that we currently have available to prevent or treat malaria is rapidly reducing and there is no vaccine available to prevent people from catching the disease. Our research is important because in order to make better medicines for malaria we have to get to know more about how the malaria parasite makes people sick. The most vicious form of malaria is caused by a tiny parasite called Plasmodium falciparum that lives inside the red blood cells in our bodies. As these minute parasites grow, they make a lot of major changes to the red blood cells and as a result they become very stiff and sticky. This is very bad for the infected person because instead of flowing around the body like normal red blood cells, the infected cells become trapped in small veins and can no longer do their normal job. The ability of the parasite to redecorate red blood cells and make them stiff and sticky is what makes this type of malaria so dangerous, particularly when red cells get stuck in the brain. The research that we will do here will help us to understand the ways in which the malaria parasite sends out these sticky substances to the walls of red blood cells. Eventually, this will help us to find ways to stop the red blood cells from becoming sticky and prevent so many people from becoming very sick and dying with malaria.
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    Mechanism Of Malaria Parasite Adhesion

    Funder
    National Health and Medical Research Council
    Funding Amount
    $573,055.00
    Summary
    The greatest impact of Plasmodium falciparum malaria infection in Africa is on children and pregnant women. Malaria infected red blood cells stick to receptor molecules on cells lining blood vessels. The parasite produces a family of proteins called PfEMP1, expressed on the cell surface. These PfEMP1 proteins are responsible for the sticking, and are major targets of the host immune response to malaria. We have found two particular receptor molecules, sugars called chondroitin sulphate A (CSA) a .... The greatest impact of Plasmodium falciparum malaria infection in Africa is on children and pregnant women. Malaria infected red blood cells stick to receptor molecules on cells lining blood vessels. The parasite produces a family of proteins called PfEMP1, expressed on the cell surface. These PfEMP1 proteins are responsible for the sticking, and are major targets of the host immune response to malaria. We have found two particular receptor molecules, sugars called chondroitin sulphate A (CSA) and hyaluronic acid (HA), to be particularly important in sticking in the placenta, and have identified a PfEMP1 molecule which sticks to these. We will study the role of antibodies against the parasite, and against the CSA and HA molecules, in protection against malaria. We believe that African women develop these antibodies with increasing pregnancies, protecting themselves and their babies from malaria in later pregnancies, and that men will not have these antibodies. Pregnant women who have HIV-AIDS have greater susceptiblity to malaria. We will compare antibody responses in HIV+ and HIV- women to see if this is because they produce less protective antibodies. The PfEMP1 proteins are the product of var genes. We can compare parasites using the var genes they express to fingerprint them. We will examine the var gene expression by parasites from different patients, and by the parasites circulating in the blood or stuck in the placenta (in pregnant women) or in the brain, lung, gut and other organs (of children who have died of malaria) to see if the fingerprints of var gene expression differ between these different patients, or between different places in the same patient.
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    Assessment Of Transgenic Plants Expressing Malaria Antigens As A Means Of Inducing Protective Immunity

    Funder
    National Health and Medical Research Council
    Funding Amount
    $112,000.00
    Summary
    Malaria infection of humans is one of the most important and deadly infectious diseases in the world, killing more than two million people each year. Traditionally, drugs and insecticides have been used to treat the disease and control its spread. Unfortunately, both of these have become much less effective and there now exist untreatable cases of malaria. Alternative control measures are urgently needed and this project focusses on the development of such an alternative, a vaccine against malar .... Malaria infection of humans is one of the most important and deadly infectious diseases in the world, killing more than two million people each year. Traditionally, drugs and insecticides have been used to treat the disease and control its spread. Unfortunately, both of these have become much less effective and there now exist untreatable cases of malaria. Alternative control measures are urgently needed and this project focusses on the development of such an alternative, a vaccine against malaria using plants transgenic for genes encoding vaccine molecules. Growing these plants not only provides a potentially inexpensive vaccine production system but also offers a potential delivery system such that immunisation may be possible simply through consumption of an edible vaccine. This project intends to investigate the possibility of using transgenic plants expressing malaria antigens to induce protective immunity against malaria infection. The results of this project will provide vitally important information in malaria vaccine production and delivery.
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    Funded Activity

    Severe Malaria In Children In Papua New Guinea: A Longitudinal Study Of Pathophysiology, Management And Outcome

    Funder
    National Health and Medical Research Council
    Funding Amount
    $484,808.00
    Summary
    The features of severe infection in children living in tropical countries may not allow differentiation between malaria and bacterial-viral causes. This can create significant problems with deciding on appropriate management. In addition, the main complications of malaria such as coma, increased acid levels in the blood and anaemia are not well understood. We plan to characterise infections in Papua New Guinean children in detail and explore mechanisms behind important malarial complications.
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    Funded Activity

    A Transgenic Approach To Rationale Drug Design In Plasmodium Falciparum

    Funder
    National Health and Medical Research Council
    Funding Amount
    $420,872.00
    Summary
    Malaria is a disease caused by parasites of the genus Plasmodium. It is responsible for more than 2 million deaths per year predominately in Sub-Saharan Africa. Many of the currently used drugs to combat this disease are failing through drug resistance in the parasite population. New and novel drugs are urgently required. This project uses state of the art techniques to identify and validate new and novel targets within the parasite that can be used for rational drug design
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    Investigation Of A Virulence Locus On Chromosome 9 Of Plasmodium Falciparum Utilising Improved Transfection Technology

    Funder
    National Health and Medical Research Council
    Funding Amount
    $211,527.00
    Summary
    Worldwide, there are approximately 500 million cases of malaria per year with over 1 million deaths, predominately in children under 5 years of age in Africa. We have identified a region of the malaria parasites' genome that we believe is responsible for two aspects of the parasites life cycle. Firstly, there is a gene responsible for the development of the sexual stage of the parasite that allows transmission from humans to mosquitoes and secondly there are two other genes that allow the parasi .... Worldwide, there are approximately 500 million cases of malaria per year with over 1 million deaths, predominately in children under 5 years of age in Africa. We have identified a region of the malaria parasites' genome that we believe is responsible for two aspects of the parasites life cycle. Firstly, there is a gene responsible for the development of the sexual stage of the parasite that allows transmission from humans to mosquitoes and secondly there are two other genes that allow the parasite to evade the human hosts immune system. We intend to investigate these genes using newly developed genetic engineering tools with the ultimate aim of finding agents or vaccines that can block their action, thus preventing either transmission of the parasite or the severe effects of infection.
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