MRI scans are strong diagnostics with high-definition images of what lies inside a body. Strong magnetic fields require precaution, as brought out by an instance where a young woman suffered very serious injuries due to an oversight in a metallic core within a silicone sex toy that she happened to have before the MRI scan. This makes a stark reminder about the potentially deadly consequences of missing metal objects when such procedures are being performed. In April 2023, a 23-year-old woman went into an MRI with a silicone plug containing a metal core that was not known.

She thought that the item is made entirely out of silicone according to the advertising. However, the strong magnetic field of the MRI machine interacted with the hidden metal, dragging the object through her body and causing excruciating pain. According to reports from the U.S. Food and Drug Administration (FDA), the scene was harrowing, with the woman screaming in agony and requiring immediate hospitalization. Despite pre-scan screenings, which are routine prior to a scan, the patient did not inform the facility that the object existed because he presumed it was purely non-metallic. This caused serious injuries that led to the patient's law suit against the manufacturer for deceitful misrepresentations of material content.

MRI machines employ magnets between 0.5 to 3 Tesla (T). This is thousands of times stronger than the Earth's magnetic field. The tremendous force causes ferromagnetic materials, like iron and nickel, to be magnetized quickly and become strongly attracted toward the magnet. Objects as small as hairpins or paper clips will accelerate at 40 miles per hour inside the magnetic field.

The force can lead to catastrophic injuries in items lodged within the body, such as metallic implants or foreign objects. Metallic cores within devices, like pacemakers or intrauterine devices, must be disclosed to radiologists to prevent such complications.

How Metal Objects Interact with MRI Fields?

On these claims, Dr. Adam Taylor, a specialist in human anatomy, weighed his words in a international health website and added that the distance away and mass of this object would increase its velocity towards that of sound, "The acceleration would be phenomenal, but with a metallic core, it can't go anywhere near supersonic speeds. As for the size, the magnetic acceleration to the internal soft tissues would ensure that there could be severe intracranial trauma."

The injuries inflicted in this case likely involved damage to major blood vessels, nerves, or organs, highlighting the devastating impact of even minor oversight during an MRI scan.

This is not an isolated case. There are documented cases of metallic objects causing serious damage during MRI scans with a 65-year-old man with schizophrenia swallowed metal objects, including sockets and a hinge pin. The powerful magnetic field during an MRI scan caused the objects to rupture his stomach, resulting in serious injuries.

A toddler who ingested 11 small magnets perforated his bowel while undergoing a scan, making his case unique. In another deadly but extremely rare incident, there have been people who hide a firearm on themselves during MRI procedures. Magnetic attraction can trigger a discharge in a weapon and has led to some fatal injuries.

These cases emphasize the very strong need for adequate screening and patient education prior to an MRI.

Preventing MRI-Related Incidents

Medical professionals have been trained to avoid risks. This is by properly screening a patient for metallic objects. In general, most pre-scan protocols include:

• Patients are interrogated about implants, recent surgery or exposures at work related to metals.
• Radiologists sometimes use handheld metal detectors to search for hidden items.
• People who work with metal, like welders or machinists, will need additional testing to detect microscopic metal fragments within soft tissues or eyes.

The case emphasizes the importance of product labeling by manufacturers, especially those products that are likely to unintentionally cause harm to health. The patient's assumption that her device was 100% silicone points to a larger problem in consumer markets with misinformation.

It also reminds the patients to report any possible dangers to the medical professionals, no matter how the objects look non-metallic. In sensitive cases, patients can request private discussions with healthcare providers to ensure safety without discomfort.

In the end, it is a joint effort from manufacturers, healthcare professionals, and patients that can prevent such tragedies. Manufacturers must ensure truthful marketing, while healthcare providers should educate patients about the dangers of metal objects in MRI settings. For patients, understanding the risks and actively participating in pre-scan disclosures can be lifesaving.

This young woman's experience is a sobering example of the unforeseen dangers posed by MRI machines when precautions are overlooked. It serves as a wake-up call to address gaps in patient awareness, medical protocols, and product transparency. By learning from this incident, the medical community and the public can work together to ensure MRI scans remain a safe and effective diagnostic tool.

Tech giant Microsoft's new artificial intelligence model GigaTIME will help reduce time and cost as well as expand access to cancer care, said CEO Satya Nadella today.

Nadella noted that its multimodal AI system has shown promise in transforming routine pathology slides into detailed spatial proteomics data -- a high-resolution map of proteins.

The advanced technology may help doctors analyze tumors faster, thus bringing hope to millions of cancer patients worldwide for a better and faster diagnosis.

Taking to social media platform X, Nadella said: “We’ve trained a multimodal AI model to turn routine pathology slides into spatial proteomics, with the potential to reduce time and cost while expanding access to cancer care”.

What is GigaTIME

GigaTIME is a multimodal AI model for translating routinely available hematoxylin and eosin (H&E) pathology slides to virtual multiplex immunofluorescence (mIF) images.

H&E is the "gold standard" technique in pathology for diagnosing cancer. The mIF images share details of proteins and their locations in cancer cells, thus advancing precision immuno-oncology research.

Developed in collaboration with Providence and the University of Washington, the team trained GigaTIME on a dataset of 40 million cells with paired H&E and mIF images across 21 protein channels.

The multimodal AI, which analyzed standard pathology slides, showed the potential to generate a “virtual population” of tumor cells. It also revealed the detailed protein activity within cancer cells.

The images also offer deeper insights into how tumors behave and disease progression, enabling doctors to cut down the time and cost of diagnosis.

“GigaTIME is about unlocking insights that were previously out of reach,” explained Carlo Bifulco, chief medical officer of Providence Genomics and medical director of cancer genomics and precision oncology at the Providence Cancer Institute, in a Microsoft Blogpost

“By analyzing the tumor microenvironment of thousands of patients, GigaTIME has the potential to accelerate discoveries that will shape the future of precision oncology and improve patient outcomes,” Bifulco added.

How GigaTIME Works

In the paper, detailed in the journal Cell, scientists from Microsoft reported that they applied GigaTIME to 14,256 cancer patients from 51 hospitals and over a thousand clinics.

The AI system generated a virtual population of around 300,000 mIF images spanning 24 cancer types and 306 cancer subtypes.

This virtual population uncovered 1,234 statistically significant associations linking mIF protein activations with key clinical attributes such as biomarkers, staging, and patient survival.

"By translating readily available H&E pathology slides into high-resolution virtual mIF data, GigaTIME provides a novel research framework for exploring precision immuno-oncology through population-scale TIME analysis and discovery," the researchers said.

"The GigaTIME model is publicly available to help accelerate clinical research in precision oncology," they added.

The American College of Cardiology (ACC) and the American Heart Association (AHA) released the 2026 ACC/AHA Guideline on the Management of Dyslipidemia. These guidelines introduce important updates in cardiovascular risk assessment, lipid testing, and lipid-lowering therapy.

The guidelines focus on the cases of young people facing heart issues and thus highlight 10 key actions for 2026, which also includes early detection and starting cholesterol check as early as the age 19.

The guidelines have been published in the March 2026 issue of Circulation. The document was developed by a multidisciplinary panel that presented several organization, including the American Diabetes Association (ADA), National Lipid Association (NLA), and Preventative Cardiovascular Nurses Association (PCNA).

The 2026 guidelines will replace the widely used earlier AHA/ACC 2018 cholesterol guidelines, while incorporate new findings and big clinical trials, which will include lipid biomarkers, and enhanced cardiovascular risk prediction models.

What Are The New Steps Introduced By ACC/AHA 2026 Guidelines?

The focus of the new guidelines is on early detection and lifelong risk reduction. The key 10 actions include:

Read: AHA Cholesterol Guidelines 2026: How Indians Can Improve Heart Health

Early Prevention

One of the biggest shifts in the new recommendations is the focus on early detection and management of lipid disorders, especially among younger people. The aim is to reduce lifetime exposure to atherogenic lipoproteins and prevent the long-term development of atherosclerotic cardiovascular disease (ASCVD).

Use PREVENT For Risk Prediction

The guidelines introduce the PREVENT risk equations to estimate 10-year and 30-year cardiovascular risk in adults aged 30–79. This replaces the earlier pooled cohort equations and is expected to improve how patients are categorized according to risk.

Early Treatment For Borderline-risk Patients

Lipid-lowering therapy can now be considered for primary prevention in individuals with a borderline 10-year ASCVD risk (3–5%). For those with intermediate risk (5–10%), treatment decisions should involve shared discussions between doctors and patients.

LDL-C

The updated guideline reintroduces clear LDL-C and non-HDL-C treatment targets, along with percentage reduction goals. These benchmarks help clinicians decide when to intensify treatment.

ApOB Testing

The recommendations suggest measuring apolipoprotein B (ApoB), particularly in patients with high triglycerides, diabetes, or cases where LDL-C levels may underestimate the number of atherogenic particles.

Adults Must Undergo One-time Lp(a) Testing

Because lipoprotein(a) [Lp(a)] is a genetic risk factor for cardiovascular disease, the guideline advises that all adults undergo at least one lifetime test to identify inherited cardiovascular risk.

Coronary Calcium Scoring (CAC)

Coronary artery calcium (CAC) scoring can help guide treatment decisions, especially for people with borderline or intermediate cardiovascular risk who are unsure about starting statin therapy.

Lipid Therapy for High Risk Comorbidities

Adults aged 40–75 years with conditions such as diabetes, stage 3–4 chronic kidney disease, or HIV infection should receive lipid-lowering therapy for primary prevention, even if their baseline LDL-C levels are not elevated.

Secondary Prevention Methods

For patients with established ASCVD and high risk, the guideline recommends an LDL-C target below 55 mg/dL, as lower levels are linked to better cardiovascular protection.

Stating - The Cornerstone of Therapy

Despite newer medications, statins continue to be the first-line therapy for most patients with dyslipidemia and play a major role in reducing ASCVD risk. Additional treatments such as ezetimibe, PCSK9 inhibitors, bempedoic acid, and inclisiran may be added depending on treatment goals and patient needs.

Unable to hit the gym due to a crunch of time? Take heart, indulging in resistance exercises such as lifting weights and bodyweight just twice a week at home can help you build muscle, as per new guidelines from the American College of Sports Medicine (ACSM).

The first major update to resistance training guidelines in the last 17 years moved away from the previous stance and stressed the fact that any type of resistance training is better than no exercise at all.

The updated guidelines stress the importance of resistance training, even in small amounts, for improving

• strength,
• muscle size,
• power
• physical function.

What Does The New Guidelines Say

The new recommendations, published in the Medicine & Science in Sports & Exercise journal, are based on 137 systematic reviews involving more than 30,000 participants. It is the most comprehensive resistance training guideline to date.

More than perfection, the guidelines emphasized the need for consistency. Beyond the gym, the guidelines for the first time also recognize elastic bands, bodyweight training, and home-based routines for offering clear and measurable improvements in strength, muscle size, and functional performance.

"The best resistance training program is the one you'll actually stick with," said Stuart Phillips, distinguished professor in the Department of Kinesiology and an author on the Position Stand.

"Training all major muscle groups at least twice a week matters far more than chasing the idea of a 'perfect' or complex training plan. Whether it's barbells, bands, or bodyweight, consistency and effort drive results," Phillips added.

The guidelines stated that while the load, volume, or frequency of the exercise regimen can be fine-tuned, the primary goal for most adults should be to build a consistent routine.

Instead of rigid rules, Phillips said that personal goals, enjoyment, and long-term adherence matter most, especially for adults looking to stay strong, healthy, and functional as they age.

Also read: India For The First Time Has Guidelines On Muscle Loss

What is Resistance training?

Resistance training, also known as strength or weight training, is a central component of exercise programs.

It exercises muscles by contracting against external resistance, such as free weights, machines, resistance bands, water, or body weight, through isometric, isotonic, or isokinetic actions.

It has proven to

• improve muscular strength,
• power,
• endurance,
• overall health and sports performance.
• bone density.

The Physical Activity Guidelines for Americans recommends adults do muscle-strengthening activities two or more days per week, working all major muscle groups at a moderate or greater intensity.

Studies have proven that resistance training

• Improves blood glucose control,
• Boost gut health
• Improves cognition and brain health
• Cuts down stress, depression, and anxiety
• Reduces cardiovascular disease risks.