Enabling personalized cancer care through AI and computer simulations with NVIDIA

Sep 20, 2022

By: Joseph R. Peterson and Dorys Lopez

From Precision Medicine to Personalized Medicine

No two tumors are alike. Despite some tumors sharing the same biological characteristics, inter-patient heterogeneity remains one of the biggest challenges in cancer care. Traditional genomic- and transcriptomic-based precision medicine technologies have made great strides in predicting whether targeted therapies will be effective for a patient. Yet they leave physicians to trial and error in the large populations where rare genetic alterations are absent.

How to better personalize treatment for the general patient population remains an unmet need. What is needed now is a shift from precision medicine to personalized medicine.

Digital Twins as the Basis for Personalized Medicine

SimBioSys® is developing the TumorScope® platform to capture what is truly unique about each patient. The NVIDIA GPU-powered platform takes a holistic and multiscale approach to assess tumor response to therapy. Pulling together all the information that’s painstakingly acquired during the diagnosis — demographic, clinical, radiological and pathological — TumorScope creates a 3D “digital twin” that virtualizes a patient’s cancer.

Once virtualized in a computer, the digital twin can be used to examine what is impossible in the real world: different treatment scenarios on the same patient.

Analogous to the principles of weather forecasting and navigation systems, TumorScope employs mathematical models and computer simulations to forecast tumor response to therapy. Simulations dynamically capture changes in tumor growth, metabolism, drug perfusion kinetics and sensitivity to drugs in both space and time, creating a 4-dimensional (4D) realization of what could happen (Figure 1).

 

 

Figure 1. Using diagnostic pre-treatment data, TumorScope creates a 3D digital twin of each patient’s tumor. The digital twin contains dynamic maps of the tumor, blood vessels and surrounding tissue that change in space and time when simulated with different treatment regimens.

 

 

Powered by the NVIDIA AI Computing Platform

All of this is made possible by NVIDIA’s full-stack AI acceleration platform. From processing the 3D medical imaging into a realistic model of the patient’s tumor and surrounding tissues, to simulating the complex biophysical processes that drive tumor response, TumorScope was built from the ground up on top of NVIDIA GPUs.

What would have taken days on a supercomputer 10 years ago, can now be accomplished in minutes with NVIDIA GPUs and software development applications.

As a member of NVIDIA Inception, a free program for cutting-edge startups, SimBioSys relied on the expertise of NVIDIA engineers and platforms to drastically optimize code performance. Using the NVIDIA Clara and MONAI frameworks, SimBioSys automated and sped up the time to train new medical imaging networks from about a month to under a day (>30x speedup). By migrating CPU-based simulation code to leverage CUDA, SimBioSys brought down the simulation time for a single patient-specific response prediction from over 10 hours to about 15 minutes (>40x speedup).

These enhancements offer the promise of a non-invasive, point-of-care personalized medicine test.

Taking on Breast Cancer

As a first target, SimBioSys seeks to ensure every breast cancer patient receives the personalized treatment they deserve. Currently, TumorScope supports all early-stage breast cancer standard-of-care therapies listed in the National Comprehensive Cancer Network (NCCN) guidelines.

Utilizing this technology, oncologists will be empowered with information on what treatment could provide the most benefit — and the least amount of toxicity — to better tailor care for each patient (Figure 2).

 

Figure 2. Upon simulation of the drug regimen chosen by the physician, TumorScope evaluates the changes in size and volume of the tumor to determine a “pCR score,” which reports the probability that a patient’s tumor will be completely eradicated. With this information, oncologists can assess the probability that their treatment of choice could result in pCR for the patient.

 

 

TumorScope’s innovative personalized medicine technology has the potential to change the lives of patients for the better. In collaboration with multiple academic and community hospitals, SimBioSys has validated TumorScope in over 1,000 breast cancer patients. The results are state-of-the-art performance in predicting response to therapy: both the size and shape of the tumor throughout treatment and overall response.

SimBioSys is now working to get the technology in physician’s hands so that it can start making a difference in patient’s lives.

Learn the latest about MONAI and innovation from leading healthcare AI startups by attending the panel, Accelerate Healthcare and Life Science Innovation with Makers and Breakers, at NVIDIA GTC, the developer conference for the era of AI and the metaverse.

 

TumorScope™ Breast

SimBioSys TumorScope™ currently aids the identification of the safest and most efficacious drug regimens for breast cancer patients.

It provides quantitative and qualitative analysis of a patient’s potential response to therapy, generated with a 3D computational model incorporating previously acquired diagnostic data.

The results from TumorScope™ are intended to be used in conjunction with the oncologist’s professional judgment, patient’s clinical history, symptoms, and other diagnostic tests.

With hundreds of retrospective patients validated, our results speak for themselves – a 95% correlation between simulated final volume and actual clinical volume post-therapy.

The Future
TumorScope™ Brain

Please Stay Tuned

The Future
TumorScope™ Mouth/Throat

Please Stay Tuned

TumorScope™ Lung

SimBioSys is developing TumorScope™ Lung, with the goal of having a positive impact on quality of life, clinical decision-making, and healthcare costs associated with lung cancer.


Though lung cancer is the leading cause of cancer-related deaths worldwide, it is amongst the few solid tumors for which immunotherapeutics have shown great promise.


The structure of lung tissue is dissimilar to that of other tissues we have studied, as the lungs are highly vascularized, oxygenated, and composed of numerous branching sets of airways.


These factors facilitate the need for accurate 3D models of the lung tumor microenvironment, and require nuanced optimization of our image analysis and segmentation methods.

The Future
TumorScope™ Bladder

Accounting for approximately 81,000 new cases in the US each year, bladder cancer is the sixth most-frequently diagnosed solid tumor.

The primary goal of neoadjuvant chemo for advanced bladder cancer is not to enable bladder-conserving treatment, but to downstage the tumor before radical cystectomy.

Bladder cancer staging is strongly dependent on the cancer’s invasion into the bladder wall and surrounding perivesical tissue.

Because of this, the SimBioSys TumorScope™ is poised to offer healthcare providers new methods to predict the degree of downstaging under different treatment regimens, and thereby optimize therapy for patients.

The Future
TumorScope™ Prostate

Affecting approximately 165,000 men in the United States each year, prostate cancers tend to occur in older men, and are often slow to progress.

As a result, management of the disease frequently includes watchful waiting and active surveillance.

SimBioSys TumorScope™ is capable of predicting tumor growth and progression, both with and without intervention.

There exists an obvious application in weighing the risks and benefits of less aggressive approaches to prostate cancer management.

The Future
TumorScope™ Ovary

The “silent killer”, early stage ovarian cancer often presents with symptoms similar to those of other common gynecological or gastroenterological issues.

Approximately 70% of epithelial ovarian cancers are not diagnosed until stage III or IV.

Ovarian cancer represents a natural next step for SimBioSys, allowing us to leverage the knowledge and modeling expertise we’ve accumulated.

This will allow us to target a cancer with high morbidity and mortality, for which neoadjuvant therapy is becoming an increasingly important option.

The Future
TumorScope™ Colon

Please Stay Tuned

The Future
TumorScope™ Skin

Please Stay Tuned

The Future
TumorScope™ Kidney

Please Stay Tuned

The Future
TumorScope™ Liver

Please Stay Tuned

The Future
TumorScope™ Uterus

Please Stay Tuned

The Future
TumorScope™ Thyroid

Please Stay Tuned

The Future
TumorScope™ Pancreas

Please Stay Tuned

The Future
TumorScope™ Esophagus

Please Stay Tuned

Tumor Microenvironment
Modeling

The tumor microenvironment is understood as a complex space where cancer cells adapt their metabolic behavior, competing and cooperating with nearby healthy cells in order to grow.

Understanding the complex ways in which cancer cells interact with other nearby cell types—competing for some resources, sharing others, and eliciting molecular signals that reshape their surroundings—is critical for understanding tumor progression and response to therapy.

SimBioSys TumorScope™ offers a computational window to these interactions, enabling patients and healthcare providers to explore how different treatment regimens can influence tumor response, and ultimately, patient survival.

Virtual Trials

The logistical and financial requirements of clinical drug trials are burdensome in the context of developing novel cancer therapeutics.

Additionally, there is inherent risk for the participants of these trials, both human and animal.

Building on the aforementioned technology, SimBioSys plans to create software to virtually test the efficacy of a drug on our library of patients.

The goal is to use this technology for planning and selecting the most appropriate cohorts, using computational methods, before a trial begins.

Additionally, this technology will be used for testing the effects of various forms of a drug on virtual patients, as opposed to humans or animals.

This technology will provide a deeper understanding of the mechanisms underlying treatment non-response, and will aid in drug development efforts.

Drug Delivery Modeling

After the SimBioSys platform has been extended to nearly the full range of solid mass tumors, pharmaceutical companies will be able to test their numerous therapies against a range of simulated tumors to discover new uses and delivery methods for drugs.

Studies show a salient relationship between sub-optimal drug delivery and acquired drug-resistance, leading to increased risk of mortality.

TumorScope™ provides an opportunity to reduce the likelihood of this occurrence.

Tushar Pandey
Chief Executive Officer MBA University of Chicago, BS Engineering University of Illinois at Urbana-Champaign

With a passion to support the fight against cancer, Tushar’s focus is to ensure the company delivers on its mission to empower precision medicine. In his prior role as VP of Decision Support at Strata Decision Technology, he worked
with over 150 health systems across the country including Kaiser Permanente, Cleveland Clinic, MD Anderson, Intermountain Healthcare, Dana Farber among others. Under his leadership, Strata Decision received the prestigious “Best in
KLAS” recognition for five consecutive years. With over a decade of healthcare experience, Tushar has been one of the key thought leaders in the healthcare analytics and cost of care space.

Joseph R. Peterson
Chief Technical Officer PhD Chemistry University of Illinois at Urbana-Champaign

Driven by an interest in computing, Joseph’s 10 years of scientific research has spanned investigating combustion and explosion, to analyzing the role of the environment on microbes’ behavior, to examining individual differences in
breast tumors. He is passionate about developing software for the health and scientific R&D sectors. His goal as Chief Technical Officer at SimBioSys, Inc. is not merely to develop enterprise technologies that enable new
clinical action, but to foster lasting relationships between key players in cancer treatment.

John A. Cole, Jr.
Chief Scientific Officer PhD Physics University of Illinois at Urbana-Champaign

John is a biophysicist specializing in stochastic models and systems biology. Equally comfortable with pencil-and-paper mathematical modeling and high-performance computational simulation, John’s “whatever works” approach to problem
solving and friendly, collaborative demeanor has allowed him to contribute significantly to a range of projects in basic science and health. As Chief Science Officer of SimBioSys, Inc., he is excited to extend this line of research
to enable transformative cancer treatment.

Tyler Earnest
Director of Computational Medicine PhD Physics University of Illinois at Urbana-Champaign

Tyler has a long history of mathematical modeling as applied to biological systems. He is also well-versed in software development, 3D visualization, and GPU programming as applied to computational biology. His primary focus is on
conceiving, constructing, and validating new cancer and drug models.

Michael Hallock
VP, Software & IT
MS Bioinformatics University of Illinois Urbana-Champaign

Michael has more than 10 years of experience in the software development and information technology fields. He has extensive experience developing software for scientific computing, high performance computing, and cloud computing.
He applies his extensive knowledge to work on advanced analytics software, focusing on back-end (database, server/client communication, database development, IT infrastructure, etc.) technologies, as well as working closely with
full stack developers. Additionally, he will provide software support for scientific development.

Anu Antony,
MD, MPH, MBA, FACS
Chief Medical Officer MBA Kellogg School of Management at Northwestern University, MPH Harvard School of Public Health, MD University of North
Carolina- Chapel Hill School of Medicine, Stanford University Medical Center, Memorial Sloan-Kettering Cancer

Dr. Antony is a Harvard, Stanford, and Memorial-Sloan Kettering Cancer Center-trained surgeon with 20 years of experience in breast cancer, including multiple leadership positions in Chicago as Professor and Vice-Chair of the Department of Surgery at Rush University, Co-Director of the Breast Cancer Service Line, and Chief of Breast Reconstruction at the Rush University Cancer Center, and Vice-Chair of the Breast Cancer Center at the University of Illinois at Chicago Hospital and Health Services. She is passionate about innovation in precision oncology and commercializing cutting-edge technology to bring it directly into the hands of physicians and patients. Her interest in science and medicine began at UNC-Chapel Hill where she graduated with distinction in Chemistry. After graduating with honors at UNC-Chapel Hill School of Medicine, she became intrigued with medical device innovation during her general surgery and plastic surgery training in silicon valley at Stanford University Medical Center. She furthered her education and training during an oncologic reconstructive surgery fellowship at Memorial Sloan-Kettering Cancer Center, a Masters in Biostatistics and Clinical Outcomes at the Harvard School of Public Health, and an additional research fellowship training at Massachusetts General Hospital/Harvard Medical School. Recognizing the benefits of dovetailing science, medicine, and business, she completed an MBA at the Northwestern-Kellogg School of Management. Dr. Antony has worked in government and private sectors where she actively treated cancer patients, co-led a multimillion dollar NIH program grant as co-PI studying stem cells in a primate model, actively publishes, lectures nationally and internationally, and has served as Chair and President of several regional and national professional societies and conferences.

Tricia Carrigan,
PhD SVP, Precision Medicine PhD

Dr. Tricia Carrigan is an accomplished Biopharmaceutical and Diagnostic Executive with over 24 years of experience across the biomarker discovery- companion diagnostic-drug development and commercialization spectrum. She specializes in Companion Diagnostics (CDx) Strategy & Commercialization, drug development programs, early and late stage drug licensing, Oncology, Women’s Health, Cardiovascular, and Hematology. She has an international experience in assay implementation/development for Phase I-III trials, external innovation and business development/partnering in EU and Asia- Pacific markets.

Eduardo Braun, MD
Head of Clinical Affairs
MD, Rio de Janeiro School of Medicine, RUSH University Medical Center
Eduardo Braun, MD earned his medical degree at the Federal University of Rio de Janeiro School of Medicine. He completed his Fellowship in Hematology/Oncology, and his Residency in Internal Medicine at RUSH University Medical Center in Chicago. He is board certified in internal medicine, medical oncology and hematology.
Dr. Braun actively participates in lung cancer, breast cancer and lymphoma research and his work has been published. He is an active member of the American Society of Clinical Oncology, American Society of Hematology and the International Association for the Study of Lung Cancer.
Dr. Braun practices in Valparaiso, Chesterton, Hobart and Westville, Indiana.

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Hilary Ann Baldwin,
VP, Regulatory & Quality

Hilary Ann Baldwin has over 20 years’ experience in regulatory and quality in the pharmaceutical, diagnostic, and medical device industries. She started in the pharmaceutical and toxicology industry while at Eli Lilly on their early development team, while building significant relationships with the FDA and other regulatory bodies. She then moved on to Roche where she began working on assay development and validation for the diagnostics division, while also taking over management of the regulatory submissions. After Roche, Hilary went to Covance, where she partnered with several pharmaceutical, diagnostic, and medical device companies on US and OUS submissions. During this time, she also took oversight of the companion diagnostic management team. Hilary worked at Stryker as a Staff Regulatory Specialist, eventually managing the global sustainability team, and focusing on OUS submissions. As the Vice President of Regulatory at Caris Life Sciences Hilary focused on domestic and global strategy. Currently, Hilary is the Vice President of Regulatory and Quality at SimBioSys. She recently worked with FDA on the VALID ACT in addition to the SaMD pilot program. Hilary has also partnered with several OUS regulatory bodies for first of kind products and assisted in writing the guidance with PMDA for remanufacturing.