AI Predicts Spinal Fractures in Cancer Patients Using CT/MRI Scans
|
By HospiMedica International staff writers Posted on 06 May 2022 |

One of the biggest clinical concerns that cancer patients face is the risk of spinal fractures due to spinal metastasis - when disease spreads from other places in the body to the spine - which can lead to severe pain and spinal instability. As medicine continues to embrace machine learning, a new study suggests how scientists may use artificial intelligence (AI) to predict how cancer may affect the probability of fractures along the spinal column.
While many of the changes the body undergoes when exposed to cancerous lesions are still a mystery, with the power of computational modeling, scientists can get a better idea of what’s happening to the spine. The study by researchers at The Ohio State University (Columbus, OH, USA) demonstrated how the researchers trained an AI-assisted framework called ReconGAN to create a digital twin, or a virtual reconstruction of a patient’s vertebra. Unlike 3D printing, where a virtual model is turned into a physical object, the concept of a digital twin involves building a computer simulation of its real-life counterpart without creating it physically. Such a simulation can be used to predict an object or system’s future performance - in this case, how much stress the vertebra can take before cracking under pressure.
By training ReconGAN on MRI and micro-CT images obtained by taking slice-by-slice pictures of vertebrae acquired from a cadaver, researchers were able to generate realistic micro-structural models of the spine. Using their simulation, the team was also able to virtually enlarge the model, a capability the study says is imperative to understanding and incorporating changes into the entirety of a vertebra’s geometric shape. In this case, the researchers used CT/MRI scans from a 51-year-old female lung cancer patient whose cancer had metastasized to simulate what might happen if cancer weakened some of the vertebrae and how that would affect how much stress the bones could take before fracturing.
The model predicted how much strength parts of the vertebra would lose as a result of the tumors, as well as other changes that could be expected as the cancer progressed. Some of their predictions were confirmed by clinical observations in cancer patients. For a field like orthopedics, using a non-invasive tool like the digital twin can help surgeons understand new therapies, simulate different surgical scenarios and envision how the bone will change over time, either due to bone weakness or to the effects of radiation. The digital twin can also be modified to patient-specific needs, according to the researchers. But this was just a feasibility study and much more work is needed, say the researchers. ReconGAN was trained on data from only one cadaveric sample, and more data is needed for AI to be perfected.
“Spinal fracture increases the risk of patient death by about 15%,” said Soheil Soghrati, co-author of the study and associate professor of mechanical and aerospace engineering at The Ohio State University. “By predicting the outcome of these fractures, our research offers medical experts the opportunity to design better treatment strategies, and help patients make better-informed decisions. What really makes the work in a distinct way is how detailed we were able to model the geometry of the vertebra. We can virtually evolve the same bone from one stage to another.”
“The ultimate goal is to develop a digital twin of everything a surgeon may operate on,” added Soghrati. “Right now, they’re only used for very, very challenging surgeries, but we want to help run those simulations and tune those parameters even more.”
Related Links:
The Ohio State University
Latest Critical Care News
- Automated IV Labeling Solution Improves Infusion Safety and Efficiency
- First-Of-Its-Kind AI Tool Detects Pulmonary Hypertension from Standard ECGs
- 4D Digital Twin Heart Model Improves CRT Outcomes
- AI Turns Glucose Data Into Actionable Insights for Diabetes Care
- Microscale Wireless Implant Tracks Brain Activity Over Time
- Smart Mask Delivers Continuous, Battery-Free Breath Monitoring
- Routine Blood Pressure Readings May Identify Risk of Future Cognitive Decline
- CGM-Based Algorithm Enhances Insulin Dose Adjustment in Type 2 Diabetes
- Fish Scale–Based Implants Offer New Approach to Corneal Repair
- Dual-Function Wound Patch Combines Infection Sensing and Treatment
- Smartwatch Signals and Blood Tests Team Up for Early Warning on Insulin Resistance
- Smart Fabric Technology Aims to Prevent Pressure Injuries in Hospital Care
- Standardized Treatment Algorithm Improves Blood Pressure Control
- Combined Infection Control Strategy Limits Drug-Resistant Outbreak in NICU
- AI Helps Predict Which Heart-Failure Patients Will Worsen Within a Year
- Algorithm Allows Paramedics to Predict Brain Damage Risk After Cardiac Arrest
Channels
Artificial Intelligence
view channel
Machine Learning Approach Enhances Liver Cancer Risk Stratification
Hepatocellular carcinoma, the most common form of primary liver cancer, is often detected late despite targeted surveillance programs. Current screening guidelines emphasize patients with known cirrhosis,... Read more
New AI Approach Monitors Brain Health Using Passive Wearable Data
Brain health spans cognitive and emotional functions and can fluctuate even in adults without diagnosed disease. Detecting early changes remains difficult in routine care and burdens specialty services... Read moreCritical Care
view channel
Automated IV Labeling Solution Improves Infusion Safety and Efficiency
Medication administration in high-acuity settings is often complicated by multiple concurrent infusions, making accurate line identification essential. In a 10-hospital intensive care unit study, 60% of... Read more
First-Of-Its-Kind AI Tool Detects Pulmonary Hypertension from Standard ECGs
Pulmonary hypertension is a progressive, life‑threatening disease that is frequently missed early because symptoms such as dyspnea are nonspecific and diagnostic delays can exceed two years.... Read moreSurgical Techniques
view channel
Continuous Monitoring with Wearables Enhances Postoperative Patient Safety
Postoperative hypoxemia on general surgical wards is common and often missed by intermittent vital sign checks. Undetected low oxygen levels can delay recovery and raise the risk of complications that... Read more
New Approach Enables Customized Muscle Tissue Without Biomaterial Scaffolds
Volumetric muscle loss is a traumatic loss of skeletal muscle that often leads to permanent functional impairment and limited reconstructive options. Current experimental strategies struggle to deliver... Read morePatient Care
view channel
Wearable Sleep Data Predict Adherence to Pulmonary Rehabilitation
Chronic obstructive pulmonary disease (COPD) is a long-term lung disorder that makes breathing difficult and often disturbs sleep, reducing energy for daily activities. Limited engagement in pulmonary... Read more
Revolutionary Automatic IV-Line Flushing Device to Enhance Infusion Care
More than 80% of in-hospital patients receive intravenous (IV) therapy. Every dose of IV medicine delivered in a small volume (<250 mL) infusion bag should be followed by subsequent flushing to ensure... Read moreHealth IT
view channel
EMR-Based Tool Predicts Graft Failure After Kidney Transplant
Kidney transplantation offers patients with end-stage kidney disease longer survival and better quality of life than dialysis, yet graft failure remains a major challenge. Although a successful transplant... Read more
Printable Molecule-Selective Nanoparticles Enable Mass Production of Wearable Biosensors
The future of medicine is likely to focus on the personalization of healthcare—understanding exactly what an individual requires and delivering the appropriate combination of nutrients, metabolites, and... Read moreBusiness
view channel







