Professor Carl Borrebaeck | Dr Ulrika Axelsson – Finding the Molecular Fingerprint of Psychological Resilience in Breast Cancer Patients

Jul 29, 2020 | Biology, Editor's Pick, Health and Medicine, Psychology and Neuroscience

Professor Carl Borrebaeck and Dr Ulrika Axelsson are Director and Deputy Director, respectively, of the CREATE Health Translational Cancer Centre, Lund University, Sweden; a venue with an outstanding record of world-class cancer research. They are leading research into the fascinating topic of whether cancer patients’ psychological resilience after their cancer diagnosis may be linked to biomolecular processes, suggesting a mind-body link between the ability to cope psychologically and its impact on cancer prognosis.

Why Do Some People Cope Better Than Others?

Receiving a diagnosis of cancer is a traumatic and life-changing event, and in itself may lead to significant and negative psychological impacts. We know that stress and depression can generally worsen the progression of illness and disease, and patients struggling with psychological problems tend to have a poorer life-expectancy and quality of life. However, it is observable that some patients handle these events with better resilience than others.

Cancer research is increasingly recognising that tumours do not exist in isolation but are part of, and responsive to, the wider body ‘ecosystem’. For example, there is growing evidence that the effects of the mind and body are intrinsically joined, so that psychological stresses can have strong detrimental effects on cancer outcomes (prognosis). It remains unclear, however, why some individuals have greater psychological resilience, which is defined as the dynamic process in which individuals adjust, cope and adapt in the face of challenge and adversity.

Researchers at the CREATE clinic, Sweden, are hoping to identify biochemical markers that link to and predict low psychological resilience, ideally through a simple blood test. Their long-term goal is to open up new cancer treatments through complementary medical and psychological approaches.

The CREATE project

Professor Carl Borrebaeck and Dr Ulrika Axelsson are Director and Deputy Director, respectively, of the CREATE Health Translational Cancer Centre, Lund University, Sweden. They lead a multidisciplinary research team currently running clinical studies to investigate the relationship between the psychological resilience of cancer patients and biomarker signatures. Working with breast cancer patients, the CREATE Health project aims to use advanced ‘omics’ to untangle the intertwined mind-body links between psychological resilience and cancer prognosis.

The vision that resilience had an imprint in the somatic background of humans emerged in the team already 2012 and then grew into the largest clinical study conducted to date with a focus on the body and mind axis, fuelled by advanced omics technologies. Later, a scoping review by Dr Axelsson and her colleagues verified significant gaps in the knowledge regarding the connections between mind and body in the context of cancer. They also noted that there was no established protocol for how to analyse these potential links, although stress and depression had been shown to affect the likelihood of tumour cells metastasising (the spreading of secondary tumours). Similarly, only a very small number of biomolecular markers had been investigated for their role in psychological resilience.

The present study, denoted as ‘SCAN-B Resilience’ encompasses over 1,000 patients today and is part of the broader Sweden Cancerome Analysis Network–Breast (SCAN-B) study, which aims to develop new clinical tests for breast cancer. At time of diagnosis, breast cancer patients are asked to complete the Connor-Davidson Resilience scale (CD-RISC), a standardised method to measure psychological resilience, as well as questionnaires to measure their quality of life, lifestyle and socioeconomic status and blood samples were taken for the biomolecular analyses. Patients are followed up at one year with the same questionnaires.

From DNA to Cell

The Search for Biomarkers for Low/High Psychological Resilience

The CREATE Health project is undertaking the first large-scale study to identify the epigenetic ‘fingerprint’ of high and low psychological resilience in a group of cancer patients. Epigenetics is the study of changes in living organisms caused by the modification of the way their genes are expressed (as opposed to changes in the genetic code through mutation or damage).

New research fields are rapidly emerging that utilise epigenetic biomarkers as a process to shed light on potential diagnostic methods and therapeutic interventions. In their simplest form, biomarkers are, ideally, easily measurable characteristics that act as an indicator or predictor of a biological process or state. They can be classified into four types: diagnostic biomarkers to determine a specific health disorder; prognostic biomarkers to chart the likely course of a disease; predictive biomarkers to indicate the likely response to a particular drug, and predisposition biomarkers that indicate the risk of developing a disease.

Omics is a catch-all term applied to new technologies that have led to the discovery of many new biomarkers. Omics include a number of investigative research fields including epigenomics, proteomics, transcriptomics and metabolomics that are characterised by high-throughput laboratory techniques that make it possible to gather, in a single experiment, enormous quantities of data about a specific type of molecule, a full set of cellular proteins or a complete set of DNA modifications, for example. While still a relatively new technology, it is moving clinical research in the direction of highly personalised, precision medicine.

Illustration of Breast Cancer

Evidence of Mind-Body Interaction

Each person’s response to knowing they have cancer and coming to terms with facing the challenges ahead differs hugely. However, it is evident that some people are better than others at psychologically coping, and at the same time have better outcomes, not explained by the type and severity of the cancer or their treatment.

The critical aspects of ‘not coping well’ or low resilience, can manifest as helplessness, powerlessness and fatalism, which are both symptoms and causes of often debilitating psychological trauma, depression and anxiety. The heterogeneous nature of mental illness, however, makes it difficult for researchers to identify the fundamental physical origins (the aetiology) of the condition(s). Broadly, we know for example, that the brain undergoes pathological changes and a reduction in neuroplasticity, the brain’s ability to reorganise itself, often after injury, to create new neural connections. These processes are driven by structural, DNA transcriptional and epigenetic disruptions in several parts of the brain.

An example of the mind-body biomolecular effect is the increase in norepinephrine (a neuroendocrine hormone) during stress. Norepinephrine, in turn, elevates metalloproteinase-9 (MMP-9) levels. Importantly, both depression and stress are related to MMP-9 secretion by tumour-associated macrophages (TAM) in patients with ovarian cancer. TAM cells thus respond to stress and also act to encourage tumour growth by facilitating a proinflammatory tumour environment, creating a two-way, negative cycle of physical and psychological factors.

Lund University, Sweden.

Professor Borrebaeck and Dr Axelsson are utilising advanced genomics and proteomics research technologies to better understand the biomolecular control of genes related to the level of resilience, in order to identify biomarkers or gene ‘signatures’ that will reliably signal useful and relevant information.

In this study, blood samples taken from breast cancer patients will be analysed for DNA methylation and micro RNA (miRNA) signatures. DNA methylation is a biological process in which methyl (CH3) groups are added to the DNA molecule, modifying the action of that DNA segment and expression of the genes it contains. miRNA are a class of small non-coding RNAs that control gene expression through a number of different gene translation mechanisms. Emerging research has shown that both miRNA and DNA methylation are likely to play an important role in the manifestation of psychological (and many other) disorders. By analysing patterns and occurrences of DNA methylation and circulating miRNA, omic techniques can identify potential biomarker signatures that may shed light on the complex genetic pathways behind the development of psychological responses and the biomolecular determinants of low or high resilience.

Wider research has identified that DNA methylation is potentially linked to depression through action on several genes, but the findings are preliminary. Similarly, miRNA has emerged as a key regulator of higher brain function and neuroplasticity. Importantly there are also indications that the differential co-expression of a group of miRNAs plays a direct role in human disease pathogenesis, but can also assist researchers to study the nature of the disordered biomolecular pathways involved.

Future Project Aims

At this stage of the CREATE Health research, the team is aiming to validate the value and reliability of using DNA methylation and miRNA as biomarkers for resilience. Uniquely, the project will correlate breast cancer patients’ psychological status with the epigenetic results and track their relationship on quality of life and disease burden.

By focussing on the body and mind interactions of these patients, it is hypothesised that biomolecular signatures will match with high or low resilience indicators. Once biomarkers are proven as reliable indicators, simple tests will hopefully be developed that would enable the clinician to identify at an early stage whether a patient with cancer is also particularly susceptible to low-resilience. This information can alert clinicians that the patient faces a greater risk of a poorer cancer outcome and decreased quality of life. Appropriate intervention strategies can then be put in place, which can ameliorate the patient’s psychological difficulties.

Establishing a greater understanding of the biomolecular processes behind psychological resilience and the complex progression of tumours and other diseases opens many avenues for future clinical developments. The identification of biomolecular signatures associated with high or low psychological resilience could potentially have a major impact on the patient, as it potentially provides the opportunity for personalised diagnosis and treatment regimens, to address challenging psychological barriers to health improvement.

For clinicians, the tests will identify high-risk patients that were perhaps previously not easily identifiable. This should significantly improve clinical outcomes for cancers by simply addressing the confounding psychological factors to success. However, a detailed understanding of the epigenetics involved will also encourage the development of new, highly targeted medical treatments such as DNA methyltransferase inhibitors, as well as new psychosocial interventions.


Meet the researchers

Professor Carl AK Borrebaeck

Department of Immunotechnology
Lund University

Professor Carl Borrebaeck achieved degrees in Chemistry/Maths (BSc) and Chemical engineering (MSci) before achieving his doctorate in Molecular immunology from Lund University (LU), Sweden in 1979. Following postdoctoral studies at the University of California, he returned to LU as an Associate Professor of Immunotechnology in 1981. Professor Borrebaeck received his professorship in 1990 and in 2005 also became Director of CREATE, Health Translational Cancer Centre at LU. Between 2009–2014 he was Vice President of LU. In addition, Professor Borrebaeck is a successful serial entrepreneur, having co-founded multiple biotech companies including Immunovia AB, Senzagen AB, BioInvent International AB, Alligator BioScience AB, and, most recently, PainDrainer AB. Amongst his many awards, Professor Borrebaeck received The Biotech Builders Award for outstanding entrepreneurship in 2017, the Academy of Engineering Science Gold Medal for outstanding research in 2012 and the Akzo Nobel Science Award in 2009.





Dr Ulrika Axelsson
Department of Immunotechnology
Lund University

Dr Ulrika Axelsson achieved degrees in Chemical engineering (MSci) at the Faculty of Engineering (LTH) at Lund University (LU) before she graduated from LU with a PhD in immunotechnology in 2009 and worked as a Research Scientist in at LU between 2009–2010. Since 2010, Dr Axelsson has simultaneously managed and coordinated a number of key cancer initiatives: first as Research Coordinator, then Deputy Director of CREATE, Health Translational Cancer Centre at LU (2010-date), the LU Cancer centre (Project Leader, 2012–2013), and Research Coordinator at the BioBanking and Molecular Resources Infrastructure of Sweden (2011–2014). Dr Axelsson is also currently the Business Development Manager for PainDrainer AB, Lund, Sweden.





Lisa Rydén, MD, PhD, Co-Investigator, Department of Clinical Sciences, Lund University

Ingalill Rahm Hallberg, PhD, Co-Investigator, Department of Health Sciences, Lund University

Per Johnsson, PhD, Co-Investigator, Department of Psychology, Lund university

Corinna Richter, PhD, Study Coordination, Department of Immunotechnology/CREATE Health, Lund University


Gunnar Nilsson Foundation


Philanthropic Donation

CREATE, Health Translational Cancer Centre, Lund University

Established in 2005, CREATE Health is a unique strategic centre for Translational Cancer research mainly located at Medicon Village in Lund, Sweden. Offering an equipped and integrated ‘omics’ hub, CREATE Health brings together multidisciplinary Lund University Hospital researchers and clinicians from the Faculties of Medicine, Natural Science and Engineering to solve complex clinical problems. CREATE Health is primarily focussed on the selection of optimal, individually-based, cancer treatments emerging from the development of novel diagnostics and therapeutics based on identified markers and molecular signatures.

The SCAN-B resilience study and the MAD (Make a difference) for Cancer Programme are both hosted by CREATE. MAD is a unique, collaborative and multi-focused project bringing together holistic research on early diagnosis, patient stratification and targeted therapies addressing all aspects of cancer biology, with the aim of rapid implementation.

Want to republish our articles?


We encourage all formats of sharing and republishing of our articles. Whether you want to host on your website, publication or blog, we welcome this. Find out more

Creative Commons Licence
(CC BY 4.0)

This work is licensed under a Creative Commons Attribution 4.0 International License. Creative Commons License

What does this mean?

Share: You can copy and redistribute the material in any medium or format

Adapt: You can change, and build upon the material for any purpose, even commercially.

Credit: You must give appropriate credit, provide a link to the license, and indicate if changes were made.

Subscribe now!

More articles you may like

Professor Jim Nelson – Predicting Disasters Using Global Water Intelligence

Professor Jim Nelson – Predicting Disasters Using Global Water Intelligence

Accurate knowledge of the water cycle is essential for predicting disasters such as floods and droughts. However, it’s not easy to obtain good information from traditional weather and water forecasts. The Group on Earth Observations Global Water Sustainability initiative (GEOGloWS) provides hydrologic forecasts through an accessible web service to assist local water users. Partnering with water scientists worldwide, Professor Jim Nelson of Brigham Young University worked with the European Centre for Medium-Range Weather Forecasts to develop a global streamflow service. This service provides local communities with actionable water intelligence, enabling them to focus on solutions to water-related problems.

Dr Natalia Sira – A Holistic Approach to Health Necessitates a Deeper Understanding of Human Development

Dr Natalia Sira – A Holistic Approach to Health Necessitates a Deeper Understanding of Human Development

Connecting body and mind through the consideration of both the physical and psychological components of health helps determine our reactions and developmental behaviour. Furthermore, the ways in which we achieve our optimal developmental potential manage how well we can adapt and cope with changes in our environment, deal with stresses in life and maintain overall well-being. Dr Natalia Sira from East Carolina University is improving patient care by taking a holistic and individualised approach to health outcomes, treatment and rehabilitation, focusing on the role of family relationships, developmental needs and spirituality as important components of coping mechanisms.

Dr T. Colin Campbell – Determining the Link Between Diet and Cancer

Dr T. Colin Campbell – Determining the Link Between Diet and Cancer

Cancer is a leading cause of death worldwide and understanding the development of the disease is essential for prevention and treatment. Dr T. Colin Campbell from Cornell University’s Division of Nutritional Sciences proposes the intriguing theory that cancer is not primarily a genetic disease but a nutrition-responsive disease. By conducting numerous animal and human studies, he is providing convincing evidence on the importance of diet, particularly the consumption of animal-based protein, in the development of cancer.

Rydberg Atoms: Giants of the Atomic World

Rydberg Atoms: Giants of the Atomic World

The creation of giant atoms whose size is comparable to that of a grain of sand might sound like the stuff of science fiction, but in fact such species exist in nature and can now be created in the laboratory using advanced laser systems. Such exotic atoms, in which one electron is placed in a highly-energetic state, are termed Rydberg atoms, after the Swedish spectroscopist J. R. Rydberg who first characterised their properties. As might be expected, such extreme atoms possess very unusual physical and chemical properties. Their study has provided many new insights into the properties of Rydberg atoms themselves, their interactions with other atoms and molecules, and phenomena that arise from their collective interactions. The extreme properties of Rydberg atoms now enable emerging technological applications in sensing and quantum computation.