Singer Jesy Nelson recently shared an emotional update regarding the complications she is experiencing in her pregnancy with twin babies. Former Little Mix singer Jesy, who is having twins with partner Zion Foster, announced that she has been diagnosed with pre-twin-to-twin transfusion syndrome (pre-TTTS). The condition, which is present in pregnancies involving twins with a shared placenta, has serious risks involved and needs intense medical supervision. As Nelson embarks on this difficult journey, her story enlightens us about a rare but dangerous condition many expectant parents may not know much about.

Twin-to-twin transfusion syndrome is a rare but dangerous condition that arises in monochorionic twin pregnancies, in which identical twins share a single placenta. The placenta supplies the developing babies with oxygen, nutrients, and blood flow, but in TTTS, there is an imbalance of blood vessels that interconnect the twins, and thus the vital resources are not evenly distributed. One twin, or the donor twin, shares excess blood with the other, referred to as the recipient twin. This leads to one baby becoming malnourished and possibly anemic, and the other in danger of heart problems due to too much blood.

Nelson described her diagnosis in a heartfelt Instagram video, explaining that she is currently in the pre-stage of TTTS and undergoing frequent monitoring. "I am being scanned twice a week, and each time, things have gotten a little worse," she shared, expressing her fears and hopes for the health of her babies.

Potential Risks of TTTS

If left untreated, TTTS can have devastating consequences. Medical research indicates that:

• 90% of the cases of untreated TTTS lead to loss of one or both twins.
• Despite treatment, only a 70% survival rate for both twins is assured.
• Severe forms can result in preterm labor, cardiac failure in the recipient twin, and organ failure in the donor twin.
• Complications in long-term survivors include neurological damage and developmental delay in surviving infants.

TTTS usually advances in stages, beginning with minimal changes in fluid levels and worsening as one twin continues to get an unequal share of blood. In extreme cases, fetal laser surgery, referred to as the Solomon technique, can be employed to divide the blood vessels and balance the twins.

Why Identical Twin Pregnancies Are More Complicated

Identical twins may develop differently, and their own unique form of placental sharing can have a dramatic effect on pregnancy risk. Jesy Nelson's twins are considered monochorionic diamniotic (mono/di), which means they share a placenta but have two amniotic sacs. This is the type of pregnancy in about 70% of identical twin pregnancies and carries an increased risk of complications like TTTS, umbilical cord entanglement, and growth restriction.

Conversely, dichorionic diamniotic (di/di) twins both have a separate placenta and amniotic sac, which greatly diminishes the threat of TTTS. Twin pregnancy type is normally identified by early ultrasound, with physicians being able to track future complications from inception.

Other Twin Pregnancy Health Risks

Twin pregnancies, even without the presence of TTTS, entail a variety of health risks to the mother as well as infants:

1. Premature Birth

Over 60% of twin pregnancies end in premature delivery, with birth usually taking place before 37 weeks. Premature infants can have immature organs and need neonatal intensive care (NICU) assistance to assist with breathing, feeding, and infection fighting.

2. Gestational Hypertension and Preeclampsia

Pregnant women with multiples are at increased risk of having high blood pressure during pregnancy. This, if left untreated, can result in preeclampsia, a serious complication of pregnancy that can result in damage to organs, preterm labor, and in some cases, maternal or fetal death.

3. Anemia

Pregnant women carrying multiples are twice as likely to experience anemia, a condition where the body does not produce enough healthy red blood cells. This can lead to fatigue, dizziness, and complications during delivery.

4. Birth Defects

According to John Hopkins Medicine, multiple birth babies are twice as likely to have congenital abnormalities compared to single births. These can include heart defects, neural tube defects, and gastrointestinal issues.

5. Amniotic Fluid Imbalances

When twins have to share a placenta, they are more likely to have polyhydramnios (excess amniotic fluid) or oligohydramnios (not enough amniotic fluid). Both result in distress to the babies during fetal development and can result in premature labor.

6. Postpartum Hemorrhage

Twins are at increased risk of excessive postpartum hemorrhage because their uterus is larger and there are greater blood supply needs.

Jesy Nelson's openness about her challenging experience is raising awareness for TTTS, a condition that few individuals—let alone expectant mothers and fathers—might be aware of. Through her tearful video, Nelson stressed the significance of knowing about twin pregnancies aside from the thrill of having multiples. "We had no idea that this type of thing occurs when you're having twins. We just desperately want to make people aware of this because there are so many people who aren't aware."

Her case reminds us of the intricacies involved in twin pregnancy and the significance of early identification and medical management. For mothers carrying twins, frequent ultrasounds and vigilance can become a life-and-death issue for early detection and better outcomes of both babies.

Through constant medical attention and care, she and her partner Zion Foster remain positive and get ready for their babies to be born. In other parents whose situations are no different, the story of Nelson highlights awareness, medical progress, and emotional encouragement in handling complicated pregnancies.

The expecting parents of twin siblings are advised to discuss TTTS screening and possible interventions with their physicians to give their babies the best chance.

Artificial intelligence has taken another step forward in biology. Scientists have created viruses designed by AI and shown that they can work in the laboratory, showing promise for new treatments. But this has also triggered concerns about biosecurity.

The viruses are bacteriophages, or viruses that infect bacteria rather than humans. Researchers led by Dr Brian Hie, a chemical engineer at Stanford University, used AI models called Evo1 and Evo2 to design functioning genomes for these viruses. The models were trained using genetic data from around 2 million bacteriophages.

The researchers generated thousands of potential viral genomes and selected nearly 300 to manufacture and test in the laboratory. Only 16 ultimately proved viable.

However, a combination of the AI-designed viruses was able to kill two strains of E coli that had developed resistance to naturally occurring bacteriophages.

How Can AI Design A Virus?

The technology works like the large language models behind AI chatbots, but instead of learning patterns in human language, genome language models learn patterns in genetic sequences.

The AI was able to generate genetic instructions for new bacteriophages, which were then produced in the laboratory and tested against bacteria.

This matters because bacteriophages are already being explored as a treatment for persistent bacterial infections.

If scientists can rapidly design viruses that target specific bacteria and overcome resistance, the approach could strengthen phage therapy, particularly as antibiotic resistance continues to complicate treatment.

The researchers said the ability to rapidly design genomes and adapt them to particular bacteria could “transform phage therapy” and expand biotechnology.

Also read: ChatGPT Health Becomes Available For Eligible Users In US: Pros & Cons Of Letting AI Access Your Medical Records

So Why Are Scientists Worried?

The viruses created in this experiment were designed to infect bacteria. The researchers also deliberately excluded genetic information from viruses that infect humans, animals and plants from the AI's training data, reducing the chance of the system generating dangerous pathogens.

But the experiment demonstrates something bigger: AI can now produce functioning viral genomes.

That raises questions about what could happen if similar technology were trained on genetic information from harmful pathogens.

Prof Tom Inglesby and Dr Moritz Hanke of the Center for Health Security at Johns Hopkins University warned that the ability to create viral genomes using generative AI now exists, but the systems and regulations needed to govern the AI have not caught up.

They warned that genomes designed for human, animal or plant pathogens could potentially generate new threats that existing measures may not be equipped to contain.

Also read: The Rise of Robotic Joint Replacement: How Technology Is Transforming Orthopaedic Surgery

Is AI-Created Biological Warfare Already A Reality?

Tom Ellis, a professor of synthetic genome engineering at Imperial College London, said the experiment was impressive but pointed out that bacteriophages have extremely small and relatively simple genomes.

He also argued that fears surrounding fully AI-designed pathogens may currently be overstated. He said that modifying existing pathogens to make them more dangerous remains a much easier and more immediate concern.

Dr Filippa Lentzos of King's College London said the solution should not focus only on AI. Instead, safeguards should extend across the entire process, including AI development and access, research, DNA synthesis screening and lab biosafety.

An 18-year-old woman is in critical condition after an acidic substance was allegedly administered instead of an anaesthetic during nose surgery at a private hospital in Israel.

Police have launched an investigation into suspected negligence after the woman suffered severe burns to her face and respiratory system during the procedure on Friday.

What Happened During The Surgery?

The teenager had previously been injured in an accident on Highway 35 in southern Israel in 2024. She was admitted to the private hospital on Friday morning for a nose surgery.

According to allegations being investigated by police, the anaesthesiologist confused two substances and administered an acidic substance instead of the anaesthetic drug. The error reportedly caused severe burns to the woman's face and respiratory system.

The surgeon eventually noticed what was happening and stopped the procedure. A medical team was called into the operating room and the woman was intubated, with a breathing tube inserted into her windpipe. She was then sedated and placed on a ventilator.

She was subsequently transferred to Tel Aviv's Sourasky Medical Center, where she was admitted to the intensive care unit.

Also read: UK Woman Dies After Sudden Abdominal Pain Following Increase In Her Mounjaro Dose

Chemical Injuries In The Respiratory System

The respiratory system is particularly vulnerable to chemical injuries. Damage to the airway can cause severe inflammation and swelling, making it difficult for a person to breathe.

This is why doctors may need to secure the airway quickly through intubation and use a ventilator to support breathing while the injury is tended to.

In this case, the damage was serious enough to require another emergency operation. On Saturday evening, an expanded team of around 10 doctors at Sourasky Medical Center performed surgery to treat severe damage to her windpipe. The young woman remained sedated in the intensive care unit after the procedure.

More updates about her well-being are being awaited.

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Police Investigate Medical Negligence

The local police are now investigating the incident, particularly how the alleged mix-up of the acidic substance and anaesthetic drug occurred.

The most crucial factor to investigate in this case is whether it was an unavoidable error or gross medical negligence.

The incident has also raised concerns about careful identification and handling of medication and substance during critical surgeries surgery.

Anaesthesia involves the administration of multiple drugs and substances, making accurate identification and handling critical to patient safety.

The Israeli Health Ministry said it had not been notified about the incident. “According to an inquiry conducted by the ministry, the incident was not reported to the Health Ministry,” the ministry said in a statement.

The investigation remains ongoing, and authorities have not yet established who was responsible for the alleged error or whether any medico-criminal charges will follow.

For now, the 18-year-old remains in intensive care as doctors continue treating the severe injuries to her airway and respiratory system.

Back pain is often treated as a problem that comes with ageing, but new research suggests that some forms of spinal degeneration may have specific biological trigger, and an existing osteoporosis drug could help treat it.

A study published in Communications Biology found that a class of osteoporosis drugs called bisphosphonates reduced abnormal mineralisation in the spinal tissues of genetically modified zebrafish.

The findings show promise in treating intervertebral disc degeneration, a major cause of chronic back and neck pain.

What Did The Study Find?

Researchers from the University of Edinburgh and University of Bristol studied zebrafish lacking a functioning copy of the col9a1b gene. This gene is linked to collagen IX, an important structural component of spinal discs.

As the fish aged, they developed changes resembling human disc degeneration. Their vertebrae began to fuse and mineral deposits accumulated in the ligaments between the vertebrae, making the normally flexible spinal structures increasingly hard.

The researchers found that the mineralisation was preceded by deterioration of the structural tissue supporting that supported the developing spine.

They also identified changes in lipid metabolism, mTOR signalling, phosphate regulation and vitamin A-related pathways.

Most importantly, when researchers treated the animals with etidronate, a bisphosphonate, mineral accumulation was reduced. Other interventions targeting fat metabolism also reduced spinal fusion.

Also read: Olympian Lolo Jones Says She Was At Risk Of Paralysis After Team USA Allegedly Neglected Her Spine Injury

Why Is Disc Mineralisation A Problem?

Intervertebral discs act as cushions between the bones of the spine. They allow the back to bend and move while absorbing daily physiological stress.

With disc degeneration, the disc's structure can wear off. Abnormal mineralisation can make these tissues stiffer and contribute to vertebral fusion, making movement challenging and contributing to pain.

Currently, there are no medications that can reliably stop or reverse intervertebral disc degeneration. Treatment generally focuses on pain management, physiotherapy and lifestyle measures, while severe cases may eventually require surgery.

Also read: Yoga Poses That Can Fix Your Kid's 'Slouched' Posture

More About The Osteoporosis Drugs

Bisphosphonates are already widely used to protect bones in people with osteoporosis. They work by slowing the activity of cells that break down bone.

In this study, however, their potential benefit appeared to involve something different: preventing minerals from accumulating where they should not.

Study lead Dr Erika Kague said the research could help with alternatives to surgery. “For decades, surgery has been the only real answer for disc disease,” Kague said.

She added that the findings suggest several ways of slowing the process, including a drug already used in patients.

Dr Caroline Aylott of Arthritis UK said the findings offer “fresh hope” for the millions of people living with back pain and could help scientists move closer to new treatments.

Researchers caution that the findings are promising but still early and that larger trials will be needed to validate the study. Also, this was an animal study, not a clinical trial in people with back pain.

Researchers will need to establish whether the same biological process occurs in humans and whether bisphosphonates can safely and effectively prevent or slow disc degeneration in patients.