What is computational oncology?
Computational oncology is a semi-new phrase that is starting to gain momentum in medicine. For some, it may come as a surprise to learn that entire departments are being created in large medical institutions around the world. Upon close examination, the phrase in these two words evokes a full sense of complexity in the field of health care, especially oncology. He talks about the growth of the industry and the expansion to a multisectoral space of medicinal medicine.
A lot of time, energy, effort, and resources are invested in determining how cancer develops and then is eliminated from the body over a long period of time. As with everything, more information has a better chance of creating durable solutions. Computational oncology focuses on the molecular aspects of cancer and uses mathematical and computational modelling to maintain tumor growth pathways, develop treatment models based on this information. Researcher Alan Lefor (Japanese Journal of Clinical Oncology) writes that computational biology forms a new link between oncology and physics.
Computational oncology uses computer modelling to develop population tests, individual cancer cell models, and tumor marker diagnostics that can be used in the field of precise medicine. This information can help predict whether certain medications or therapies will provide long-term solutions to the disease in a person with cancer.
For many years, and in some cases even today, cancer treatment approaches have not progressed beyond the “thick brush” application for most people. Molecular markers are less or less helpful in identifying the specific causes of why certain procedures work for a patient.
Next-generation sequencing (NGS) provided a lot of data about our gene in healthy and diseased cells; Computational oncology departments can take that data and classify it into a database from which clinicians and researchers can seamlessly use it to benefit patients.
Departments seeking to handle two aspects of this new area of medicine are looking for individuals who specialize in computer science or laboratory science. Ideally, candidates for positions in these disciplines should have skills, education, or experience. The schools include computational biology, bioinformatics, or undergraduate and graduate programs in a combination of computational biology and quantitative genetics at schools including Harvard, Cornell, Baylor, Loyola, Marquette, Stanford, Emory, and many other state colleges.
It is a growing field for academics, scientists, and physicians; Together, this work will expand our knowledge and capabilities to reduce the burden of cancer worldwide, according to the International Agency for Research on Cancer, which estimates that by 2030 there will be 23.6 million new cases of cancer per year. 2012.
Reasons for the new potential in tumor growth patterns
There is a growing consensus in the medical community on the main approaches that lead to different types of cancer.
New families of models based on a better understanding of the role of genetics in the coding of the proteins that make up the isomers and molecular changes at the genetic, cellular, and tissue levels. These models greatly improve our understanding of the origins and growth of cancer and new treatments to fight it. These advances have led to the emergence of new multiscale computational models that describe events at many spatial and temporal levels, from the subcellular to the cellular, through tissues and organs.
The gradual appearance of predictive medical sciences, which deals in depth with real authenticity and, likewise, indicates the capacity of different models in the presence of uncertainties. This crucial discipline came to the fore recently when the inevitable data needed to calibrate and verify tumor growth patterns became available.
The enormous advances in high-performance computing have led to the implementation of an arsenal of new tools with great potential to develop realistic, high-reliability simulations of the behaviour of cancer cells. The Center for Computational Oncology is involved in many of the fundamentals of tumor growth modelling and access and related work on in vitro and in vivo data to calibrate and verify predictive models.
Advances in mathematical and computational oncology
Cancer is not a single disease, it is a complex and heterogeneous disease that is the second leading cause of death worldwide. Although all cancers are expressed as the uncontrolled growth of abnormal cells, they are actually different neoplastic diseases that have different genetic and epigenetic changes, underlying molecular mechanisms, histopathologies, and clinical outcomes. To understand the origins and growth of cancer, one must understand the role of genetics in encoding proteins, which form isomers and molecular changes at multiple levels (eg, genetic, cellular, and tissue). Although there has been significant progress in understanding the main mechanisms that lead to different types of cancer, little progress has been made in developing patient-specific therapies.
Advanced mathematical and computational models play an important role in examining the most effective patient-specific therapies. Tumors, for example, undergo dynamic Spatio-temporal changes during their progression and in response to treatments. Advanced multilevel mathematical and computational modelling can provide tools to appropriately tailor treatment strategies and address emerging goals. Similarly, it is necessary to analyze very large databases of cellular pathways to understand the interrelationships between complex biological processes. High-performance computing, big data analytics, data-intensive computing, and medical image analysis techniques are critical to addressing these challenges.
Mathematical and computational strategies need to be developed and developed to make accurate and effective use of cancer data. This research topic solicits articles describing contributions made to the state of the art and practice in mathematical and computational oncology. Authors are encouraged to exhibit their work at ISMCO 2019, the first-ever international symposium on mathematical and computational oncology, October 14-16, 2019, in Lake Tahoe, Nevada, USA.