Heart disease continues to be the leading cause of death worldwide. However, our understanding of this disease remains limited because human heart tissues are hard to come by. Human heart cells generated from stem cells can be used to grow human heart tissues in a lab dish. This pre-clinical human heart model has allowed us to test new drugs with the potential to protect the heart from injury, as well as to study genetic mutations that can cause heart disease.

Proudly supported by the O’Brien Foundation.

Please note that we are not currently offering internships or research placements for our projects.

Current research projects

  • Engineered heart tissue for disease modelling and novel target discovery

    Development of effective new drug candidates that are specific and effective for humans has been severely limited and detailed characterisation of human heart disease is urgently needed. However, this has been largely impeded by the limited access to viable human heart samples and by the cellular heterogeneity of heart tissue. We have established a multicellular cardiac organoid model with an integrated vasculature and autonomic neuronal network. We hypothesise that this multicellular human cardiac organoid, constructed with human induced pluripotent stem cell derivatives, can recapitulate the cellular and microenvironment changes during cardiac injury. This study will establish a pre-clinical human heart tissue model for cardiac disease modelling and drug development that will facilitate animal-to-human translation.

    We are not offering internships or research placements for this project.

    Stem cell secretome

    Stem cells have the potential to treat heart disease by producing beneficial soluble factors and membrane-bound particles. This project aims to accelerate the development of a new, safe and minimally invasive method to deliver the beneficial proteins of stem cells to patients, using a retrievable encapsulation device that protects the transplanted cells, to allow long-term treatment for effective cardiac repair.

    We are not offering internships or research placements for this project.

    Unlocking the secrets of heart aging with stem cells

    Cardiovascular disease is the leading cause of age-related death, with conditions such as heart failure being ten times more prevalent in individuals over 75. This project will model human heart aging by generating 3D cardiac tissue derived from induced pluripotent stem cells (iPSCs) and developing an aged ‘heart-in-a-dish’ model. Using gene editing and introducing aging-associated stressors, this project will aim to identify functional and structural changes in aged cardiomyocytes which will subsequently be used to develop novel therapeutics to mitigate age-related cardiac diseases.

    We are not offering internships or research placements for this project.

    Untangling the cardiac lipidome to develop new treatments for Friedreich ataxia heart disease

    Friedreich ataxia is a rare disease, although it’s the most common inherited ataxia. Heart disease is the leading cause of death in Friedreich ataxia patients. The cardiac lipidome is dysregulated in Friedreich ataxia and lipids therefore could be a therapeutic target. This project will harness lipidomic profiling to investigate changes to lipid species and test novel therapeutic agents using cutting-edge stem cell and 3D cardiac organoid models.

    We are not offering internships or research placements for this project.

People

Max Lim
Shiang (Max) Lim

Head, Cardiac Regeneration (O'Brien Department)

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Anne Kong
Anne Kong

Senior Research Officer, Cardiac Regeneration and Vascular Biology laboratories (O'Brien Department)

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Sebastian Bass-Stringer

Senior Research Officer, Cardiac Regeneration

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[email protected]

Available for Student Supervision

  • Dr Anida Velagic, Visiting Research Fellow (Monash MIPS)
  • Dr Francesca Bolk, Visiting post-doctoral researcher (Baker)
  • Mr RenJie (Jack) Phang, Research Assistant, co-lab manager
  • Mr Anthony Mukhtar, Research Assistant
  • Ms Yali Deng, PhD student
  • Ms Li Li, PhD student
  • Ms Hilary Hei Yi Woo, Masters student
  • Ms Anny Nan Su, PhD student
  • Ms Tayla Bishop, visiting PhD student
  • Ms Kirstie XiaoRui, visiting PhD student
  • Ms Xiao Hou  Visiting, visiting PhD student
  • Ms Pukjera Rungreang, visiting PhD student

 

Alumni

  • Dr Damian de Santiago
  • Mr Haoxiang (Alan) Zhang
  • Ms Jordan Clarke
  • Mr Lebei Jiao
  • Mr Alexander Murdoch
  • Mr Andrew Treller
  • Ms Ritika Saxena
  • Ms Priya Sivakumaran
  • Dr Ayeshah Rosdah
  • Dr Saba Naghipour

Student projects

PhD/Masters

Modelling cardiovascular diseases using human cardiac organoids

Lab: Cardiac Regeneration

Supervisor(s): Associate Professor Shiang (Max) Lim Dr Jarmon Lees

Diseases focus: Regenerative Medicine
Developing new treatments for Friedreich ataxia heart disease

Developing new treatments for Friedreich ataxia heart disease

Lab: Cardiac Regeneration

Supervisor(s): Dr Jarmon Lees

Diseases focus: Healthy Ageing
PhD/Masters

Unlocking the secrets of heart aging with stem cells

Lab: Cardiac Regeneration

Supervisor(s): Associate Professor Shiang (Max) Lim Dr Sebastian Bass-Stringer

Diseases focus: Regenerative Medicine

Selected publications

Lyu Q*, Gong S*, Lees JG*, Yin J, Yap LW, Kong AM, Shi Q, Fu R, Zhu Q, Dyer A, Dyson J, Lim SY, Cheng W. A Soft and Ultrasensitive Force Sensing Diaphragm for Probing Cardiac Organoids Instantaneously and Wirelessly. Nat Commun 2022:13(1):7259 *joint first authors

Phang RJ, Ritchie RH, Hausenloy DJ, Lees JG, Lim SY. Cellular interplay between cardiomyocytes and non-myocytes in diabetic cardiomyopathy. Cardiovasc Res 2023:119(3):668-690. 

Lees JG, Napierala M, Pébay A, Dottori M, Lim SY. Cellular pathophysiology of Friedreich’s ataxia cardiomyopathy. Int J Cardiol 2022:346:71-78. 

Rosdah AA, Smiles WJ, Oakhill JS, Scott JW, Langendorff CG, Delbridge LMD, Holien JK, Lim SY. New perspectives on the role of Drp1 isoforms in regulating mitochondrial pathophysiology. Pharmacol. Ther. 2020:213:107594.

Kompa AR, Greening DW, Kong AM, McMillan PJ, Fang H, Saxena R, Wong RCB, Lees JG, Sivakumaran P, Newcomb AE, Tannous BA, Kos C, Mariana L, Loudovaris T, Hausenloy DJ, Lim SY. Sustained subcutaneous delivery of secretome of human cardiac stem cells promotes cardiac repair following myocardial infarction. Cardiovasc Res. 2021:117(3):918-929

Zhang Y, Sivakumaran P, Newcomb AE, Hernandez D, Harris N, Khanabdali R, Liu GS, Kelly DJ, Pébay A, Hewitt AW, Boyle A, Harvey R, Morrison WA, Elliott DA, Dusting GJ, Lim SY. Cardiac repair with a novel population of mesenchymal stem cells resident in the human heart. Stem Cells. 2015:33:3100-13. doi: 10.1002/stem.2101

Related news

Rising Star fellow Jarmon Lees
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Rising Star fellow Jarmon Lees

Supported by a Fellowship from the Marian & E.H. Flack Trust, Dr Jarmon Lees and his team from the Cardiac Regeneration Lab are focussed on developing new treatments for its most common complication, heart disease.

Weary Dunlop Foundation supports ‘heart in a dish’ research
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Weary Dunlop Foundation supports ‘heart in a dish’ research

Dr Jarmon Lees has been awarded a Weary Dunlop Foundation grant to further his work on identifying new treatments for heart attack in people undergoing cancer treatment.