Paediatric Solid Tumour Biology and Therapeutics Group

Professor Louis Chesler’s group is investigating the genetic causes for the childhood cancers, neuroblastoma, medulloblastoma and rhabdomyosarcoma. 

Research, projects and publications in this group

Our group's aim is to improve the treatment and survival of children with neuroblastoma, medulloblastoma and rhabdomyosarcoma.

The goal of our laboratory is to improve the treatment and survival of children with neuroblastoma, medulloblastoma and rhabdomyosarcoma, three paediatric solid tumours in which high-risk patient cohorts can be defined by alterations in a single oncogene. We focus on the role of the MYCN oncogene, since aberrant expression of MYCNis very significantly associated with high-risk in all three diseases and implies that they may have a common cell-of-origin.

Elucidating the molecular signalling pathways that control expression of the MYCN oncoprotein and targeting these pathways with novel therapeutics is a major goal of the laboratory. We use a variety of innovative preclinical drug development platforms for this purpose.

Technologically, we focus on genetically engineered cancer models incorporating novel imaging (optical and fluorescent) modalities that can be used as markers to monitor disease progression and therapeutic response.

Our group has several key objectives:

  • Mechanistically dissect the role of the MYCN oncogene, and other key oncogenic driver genes in poor-outcome paediatric solid tumours (neuroblastoma, medulloblastoma, rhabdomyosarcoma).
  • Develop novel therapeutics targeting MYCN oncoproteins and other key oncogenic drivers
  • Develop improved genetic cancer models dually useful for studies of oncogenesis and preclinical development of novel therapeutics.
  • Use such models to develop and functionally validate optical imaging modalities useful as surrogate markers of tumour progression in paediatric cancer.

Professor Louis Chesler

Clinical Senior Lecturer/Group Leader:

Paediatric Solid Tumour Biology and Therapeutics Professor Louis Chesler (Profile pic)

Professor Louis Chesler is working to understand the biology of children’s cancers and use that information to discover and develop new personalised approaches to cancer treatment. His work focuses on improving the understanding of the role of the MYCN oncogene.

Researchers in this group

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Email: [email protected]

Location: Sutton

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Phone: +44 20 3437 6124

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OrcID: 0000-0003-3977-7020

Phone: +44 20 3437 6109

Email: [email protected]

Location: Sutton

I obtained an MSci in Biochemistry from the University of Glasgow in 2018. In October 2018 I joined the labs of Dr Michael Hubank and Professor Andrea Sottoriva to investigate the use of liquid biopsy to monitor clonal frequency and emergence of resistance mutations in paediatric cancers.

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Email: [email protected]

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Location: Sutton

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Professor Louis Chesler's group have written 113 publications

Most recent new publication 4/2025

See all their publications

Vacancies in this group

Working in this group

Higher Scientific Officer (bioinformatician)

  • Sutton
  • Systems and Precision Cancer Medicine
  • £39,805 - £49,023 per annum
  • Fixed term

Under the guidance of Prof Anguraj Sadanandam, we are seeking to recruit a Bioinformatician (Senior Scientific Officer) to contribute to implementing and performing relevant analyses, interpreting the results in context of fast-moving projects, and presenting the results to project teams as well as internal and external collaborators and contribute, with the expectation of authorship on resulting publications. There will also be opportunities to engage in bench-based experimental research, although this is not mandatory. The successful candidate will play a key role in analysing RNAseq data (bulk, single-cell, spatial), developing methodologies and supporting research activities. About you The successful candidate must have: Master’s degree in Computational Biology, Bioinformatics, Computer Science, or related subject Proven experience of bioinformatics analyses and interpretation in one or more of the following key areas (NGS analysis of WES/WGS/RNAseq (bulk, single-cell) using standard practice pipelines; Clinical data analysis (Survival curves, correlation and subgroup analysis) Proven experience in the development of software pipelines to implement analysis workflow Proven experience in use of High Performance Computing platforms and unix-like operating systems Proven experience of writing and maintaining Python, R and Bash code using Git Department/Directorate Information The Division of Molecular Pathology conducts translational research linking molecular science to clinical oncology. The group of Dr Anguraj Sadanandam focuses on cancer metabolism and tumour subtypes, particularly in pancreatic ductal adenocarcinoma (PDAC) and colorectal cancer (CRC). Using integrative multi-omics approaches — including scRNAseq, spatial transcriptomics, bulk RNAseq, metabolomics (LC-MS), CNV, and WES — combined with cell culture and genetically engineered mouse models, we aim to define tumour heterogeneity and identify new therapeutic opportunities. The successful candidate will work under multidisciplinary supervision: for clinical and biological questions, guidance will be provided by Dr Christophe Cisarovsky, Clinical Oncologist in the GI clinic at The Royal Marsden Hospital and MD-PhD, together with Group Leader Prof Anguraj Sadanandam; for technical and bioinformatics questions, supervision will be provided by Prof Anguraj Sadanandam and members of his bioinformatics team. The candidate will primarily perform bioinformatic analyses and contribute to fast-moving projects with the expectation of authorship on resulting publications. There will also be opportunities to engage in bench-based experimental research, although this is not mandatory. https://www.icr.ac.uk/research-and-discoveries/find-a-researcher/test-researcher-profile-detail/dr-anguraj-sadanandam What we offer A dynamic and supportive research environment Access to state-of-the-art facilities and professional development opportunities Collaboration with leading researchers in the field Competitive salary and pension We encourage all applicants to access the job pack attached for more detailed information regarding this role. For an informal discussion regarding the role, please contact Christophe Cisarovsky via Email on [email protected].

Cyber-Security Engineer

  • Sutton
  • Digital Services
  • £35,150 - £42,642
  • Permanent

We are seeking a highly motivated Cyber-Security Engineer to safeguard our critical data and infrastructure from cyber threats by implementing and maintaining robust security solutions. Key Responsibilities: - Security Assessments & Vulnerability Management: Identifying weaknesses in systems and networks through vulnerability assessments and penetration testing. - Implementing Security Solutions: Putting in place firewalls, intrusion detection systems (IDS), and other tools to actively block and monitor for threats. - Patch Management: Ensuring all systems are up-to-date with the latest security patches to fix known vulnerabilities. - Security Monitoring & Incident Response: Keeping watch for suspicious activity and responding to security incidents effectively. This involves analysing logs, investigating alerts, and containing breaches. - Disaster Recovery & Business Continuity: Helping develop plans to restore systems and get the business back up and running quickly in case of a cyber attack or other disaster. - Staying Up-to-Date on Threats: Keeping current with the latest cyber security threats and trends to ensure the company's defences are always effective. - Security Policy Development & Enforcement: Creating and enforcing security policies to ensure everyone in the organization is following best practices. - Security Automation: Using automation tools to streamline security tasks and improve efficiency. Why Join Us? - Be a crucial part of a dedicated team committed to excellence. - Enjoy a collaborative and supportive work environment. - Make a real impact by helping users overcome technical challenges. If you have a knack for solving problems and a desire to help others, apply today to become our next Cyber-Security Engineer. Department/Directorate Information The Digital Services Directorate ensures that everyone at the ICR has access to the technology they need to do their jobs effectively including providing specialist IT support to the ICR's research community. We encourage all applicants to access the job pack attached for more detailed information regarding this role. For an informal discussion regarding the role, please contact Ian Andrews via Email at [email protected]

Industrial partnership opportunities with this group

Opportunity: A novel test for predicting future cancer risk in patients with inflammatory bowel disease

Commissioner: Professor Trevor Graham

Recent discoveries from this group

24/09/25

Scientists have discovered a key protein that could be targeted with a drug to treat the most common and aggressive form of pancreatic cancer.

The findings, published in Nature, show that blocking the protein SPP1 could stop the spread of the cancer and increase survival time.

More than 10,000 people are diagnosed with pancreatic cancer in the UK each year, and there are more than 9,000 deaths from the disease each year. Survival rates have not shown improvement in the past 50 years – the disease has the lowest survival rates of common cancers. Only five in 100 people will survive for ten years or more.

Pancreatic ductal adenocarcinoma (PDAC) is the most aggressive type of pancreatic cancer, and the most common, accounting for 90 per cent of pancreatic cancers.

A protein associated with worse outcomes

Researchers from The Institute of Cancer Research, London, found that levels of the SPP1 protein were raised in the advanced stages of pancreatic cancer, compared with stage 1 and 2.

Looking at data from 644 patients’ tumours, they found that patients with higher levels of SPP1 had worse outcomes.

The team, funded by The Institute of Cancer Research (ICR) – which is a charity, as well as a research institute – and Breast Cancer Now, grew pancreatic cancer organoids – lab-grown mini tumours designed to model how cancer cells behave in our bodies.

Switching off the protein stops cancer spread

When they switched off the gene to make the SPP1 protein, fewer and smaller tumours developed than when the protein was present.

There were also fewer of the most dangerous cells present – cells with properties that help them invade new tissues and migrate around the body.

In mice with PDAC, switching off the gene significantly extended their survival – none of the mice with the gene survived past 50 days, whereas 20 per cent of the mice without the gene survived to 400 days.

The researchers found that SPP1 also had a profound effect on the ability of the cancer to spread. 

The mice with the SPP1 gene switched off had tumours which did not spread at all.

In contrast, 23 per cent of the mice with the SPP1 gene present had cancer that spread to the liver, and 30 per cent had cancer that spread to the lung.

Blocking the protein extends survival

Giving the mice an antibody to target the SPP1 protein also extended survival and prevented cancer spread. Without the antibody, half of the mice survived 30 days – with the antibody, half survived beyond 100 days.

The same team previously identified another protein that could change pancreatic cancer cells into the more aggressive, dangerous type.

When levels of the protein, GREM1, are low, the cells are more likely to spread. Until now, researchers have been searching for a way to boost the levels of GREM1, so that cancer cells remain in the less aggressive, and easier to treat, state.

In the current study, they discovered that SPP1 and GREM1 have directly opposing effects. Blocking SPP1 raises the levels of GREM1, and prevents pancreatic cancer cells from becoming aggressive.

The team hopes this research will pave the way to the development of precise drugs to target SPP1, such as antibodies or small molecule drugs.

'A way to prevent tumours from becoming aggressive'

Professor Axel Behrens, Professor of Stem Cell Biology at The Institute of Cancer Research, London, and Scientific Director of the Cancer Research UK Convergence Science Centre, said:

“A few years ago, we made a fundamental discovery in understanding what drives pancreatic cancer to be able to spread – making it less treatable, and ultimately more dangerous. We’ve been searching for how to harness this information to treat the disease, and I’m incredibly excited that we have now found a way to prevent tumours from becoming aggressive.

“Our research has identified a protein that, when blocked, can prevent cancer from spreading around the body and can hopefully keep patients living well for longer. The next step for this research will be to develop a drug that can precisely target the protein.”

'A clear target to halt the spread of the disease'

Professor Kristian Helin, Chief Executive of The Institute of Cancer Research, London, said:

“Pancreatic cancer remains a devastating diagnosis for patients, as its most common form spreads aggressively, and is difficult to treat.

“This exciting research offers hope, identifying a clear target to halt the spread of the disease. It’s an important step toward more effective treatments, and I look forward to future drug discovery efforts building on these findings to provide new options to patients in urgent need.”