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- A multi-pronged approach to targeting myeloproliferative neoplasms
- A new paradigm of machine learning-based structural variant detection
- A whole lot of junk or a treasure trove of discovery?
- Advanced imaging interrogation of pathogen induced NETosis
- Analysing the metabolic interactions in brain cancer
- Atopic dermatitis causes and treatments
- Boosting the efficacy of immunotherapy in lung cancer
- Building a cell history recorder using synthetic biology for longitudinal patient monitoring
- Characterisation of malaria parasite proteins exported into infected liver cells
- Deciphering the heterogeneity of the tissue microenvironment by multiplexed 3D imaging
- Defining the mechanisms of thymic involution and regeneration
- Delineating the molecular and cellular origins of liver cancer to identify therapeutic targets
- Developing computational methods for spatial transcriptomics data
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- Developing statistical frameworks for analysing next generation sequencing data
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- Discoveries in red blood cell production and function
- Discovering epigenetic silencing mechanisms in female stem cells
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- Dissecting host cell invasion by the diarrhoeal pathogen Cryptosporidium
- Dissecting mechanisms of cytokine signalling
- Doublecortin-like kinases, drug targets in cancer and neurological disorders
- Epigenetic biomarkers of tuberculosis infection
- Epigenetics – genome wide multiplexed single-cell CUT&Tag assay development
- Exploiting cell death pathways in regulatory T cells for cancer immunotherapy
- Exploiting the cell death pathway to fight Schistosomiasis
- Finding treatments for chromatin disorders of intellectual disability
- Functional epigenomics in human B cells
- How do nutrition interventions and interruption of malaria infection influence development of immunity in sub-Saharan African children?
- Human lung protective immunity to tuberculosis
- Improving therapy in glioblastoma multiforme by activating complimentary programmed cell death pathways
- Innovating novel diagnostic tools for infectious disease control
- Integrative analysis of single cell RNAseq and ATAC-seq data
- Interaction with Toxoplasma parasites and the brain
- Interactions between tumour cells and their microenvironment in non-small cell lung cancer
- Investigation of a novel cell death protein
- Malaria: going bananas for sex
- Mapping spatial variation in gene and transcript expression across tissues
- Mechanisms of Wnt secretion and transport
- Multi-modal computational investigation of single-cell communication in metastatic cancer
- Nanoparticle delivery of antibody mRNA into cells to treat liver diseases
- Naturally acquired immune response to malaria parasites
- Organoid-based discovery of new drug combinations for bowel cancer
- Organoid-based precision medicine approaches for oral cancer
- Removal of tissue contaminations from RNA-seq data
- Reversing antimalarial resistance in human malaria parasites
- Role of glycosylation in malaria parasite infection of liver cells, red blood cells and mosquitoes
- Screening for novel genetic causes of primary immunodeficiency
- Single-cell ATAC CRISPR screening – Illuminate chromatin accessibility changes in genome wide CRISPR screens
- Spatial single-cell CRISPR screening – All in one screen: Where? Who? What?
- Statistical analysis of single-cell multi-omics data
- Structural and functional analysis of epigenetic multi-protein complexes in genome regulation
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- The cellular and molecular calculation of life and death in lymphocyte regulation
- The role of hypoxia in cell death and inflammation
- The role of ribosylation in co-ordinating cell death and inflammation
- Understanding Plasmodium falciparum invasion of red blood cells
- Understanding cellular-cross talk within a tumour microenvironment
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- Unveiling the heterogeneity of small cell lung cancer
- Using combination immunotherapy to tackle heterogeneous brain tumours
- Using intravital microscopy for immunotherapy against brain tumours
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- Using structural biology to understand programmed cell death
- Validation and application of serological markers of previous exposure to malaria
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- WEHI.TV
Leukaemia

Leukaemia is a cancer of blood cells. There are many types of leukaemia that develop from different blood cells. Our research is revealing how leukaemia develops, and advancing better treatments.
Leukaemia is the most common cancer diagnosed in children under 10 years old. With more than 5000 cases annually, it is in the top 10 cancers diagnosed in Australians each year.
Our leukaemia research
Our leukaemia research spans from basic research through to clinical trials. The major aims of our research are to:
- Discover the molecular changes that cause the development of leukaemia.
- Reveal how leukaemia cells become resistant to treatment.
- Define the similarities between normal blood cell formation and leukemia development.
- Develop and test new treatments for leukaemia, in preclinical studies and clinical trials.
What is leukaemia?
Leukaemia is a cancer of blood cells arising in the bone marrow. Healthy blood consists of many cell types that work together in a balanced system. Read more about this on our haematology research page.
In leukaemia, one type of blood cell is abnormal and builds up in numbers. This deprives other cells of the space and nutrients to function properly. Leukaemia develops in the bone marrow, where blood cells are formed. Leukaemic cells can overwhelm normal blood cell formation.
Leukaemic cells can also spread around the body, disrupting the function of other organs.
There are many types of leukaemia. The names of leukaemias can describe features of the disease and its origins. Many leukaemias’ names reflect the normal blood cell types that the leukaemic cells are closest to:
- Lymphoblastic (or lymphocytic) leukaemias resemble immune cells called lymphocytes.
- Myeloid (or myelogenous) leukaemias can have features of ‘myeloid’ immune cells such as neutrophils, or the early developmental stages of red blood cells or platelets.
Leukaemias are often further described by how rapidly the diseased cells are accumulating and worsening the disease.
- Acute leukaemias involve rapidly dividing cells that have features of immature (undeveloped) blood cells. These cells can quickly hinder normal blood cell functions such as fighting infection.
- Chronic leukaemias display a slow accumulation of cancerous cells that resemble more mature blood cells. This can occur over months or years.
In some cases, a leukaemia may begin in a chronic phase but later change, or progress, to an acute leukaemia.
Some leukaemias are very similar to other cancers of blood cells including:
Leukaemia and normal blood cell development
Blood cells develop from stem cells in the bone marrow. During development, immature cells divide and change the proteins that they produce, gradually becoming more like the mature cell. Read more about blood cell development.
Many genetic changes have been discovered that make a cell become leukaemic. Many of these changes are in genes that have a function in normal blood development. Genetic changes that contribute to leukaemia often prevent a developing blood cell from maturing.
Leukaemia risk factors
Most cases of leukaemia arise ‘spontaneously’. Occasionally people in a family may share genes that make them more likely to develop leukaemia.
Some factors increase a person’s risk of developing leukaemia. These include:
- Exposure to agents that damage DNA, such as radiation or tobacco smoke.
- Treatment with immune-suppressing medications.
- Genetic disorders, such as Down syndrome.
- Certain blood disorders, such as myelodysplastic syndrome, that can precede leukaemia.
The risk of an adult developing leukaemia increases with age. However, there are certain types of acute leukaemia that are much more common in children.
How is leukaemia treated?
Different leukaemia types respond to different treatments. Medical research has led to treatments that can cure some types of leukaemia, particularly childhood leukaemias. For some types of leukaemia, treatments may not completely eliminate the leukaemic cells, but contained them for many years. This allows the patient to live in relatively good health.
Common leukaemia treatments include:
- Chemotherapy uses medications that damage DNA and kill dividing cells.
- Radiotherapy uses radiation to kill rapidly dividing cells.
Blood stem cell transplantation is an important part of leukaemia treatment. A person with leukaemia can receive very strong chemotherapy and radiotherapy to purge leukaemic cells from their body. As well as killing the leukaemic cells, this also kills the person’s normal blood forming cells. This stops the production of new blood cells. This can be restored by a blood stem cell transplant. The blood stem cells may be from the patient themself, or from another person.
Targeted therapies
Many gene changes have been discovered that contribute to leukaemia. Often these alter the amounts of the proteins that normally regulate cell proliferation and longevity. Treatments that stop these proteins from functioning are showing promise in treating leukaemia.
Some gene changes found in leukaemia result in new proteins being formed, often from rearranged genes. These new, leukaemia-promoting proteins are attractive targets for treatment, as they are unique to leukaemia cells. This means that medications that specifically block the function of the new protein should not have any effects on normal cells.
You can read more about targeted therapies on our medicinal chemistry page.
Support for people with leukaemia
The Leukaemia Foundation provides information and support for people living with leukaemia.
WEHI researchers are not able to provide specific medical advice specific to individuals. If you have cancer and wish to find out more information about clinical trials, please visit the Australian Cancer Trials or the Australian New Zealand Clinical Trials Registry, or consult your medical specialist.
Researchers:
Super Content:
Professor Andrew Roberts and collaborators have shown that patients with an advanced form of leukaemia can achieve complete remission with a novel tablet treatment.
Starting with a landmark discovery in 1988, follow the story of how Institute research has driven development of a breakthrough anti-cancer drug.
This two-part animation from WEHI.TV explains the type of programmed cell death called apoptosis, and how the anti-cancer drug venetoclax works by forcing susceptible cells into this process.
Researchers have identified a gene mutation that causes resistance to venetoclax in some patients with CLL.
The finding could help overcome drug resistance and improve treatment options.
Dr Matthew McCormack explains his research into a common type of childhood leukaemia.