Imagine this. A young teenager, 17, years old, who is fully developed. Now imagine this, the same teenager has a fully developed extra set of limbs and a pelvis. That extra set of pair is attached with chest artery. But, how can this happen?

While it is extremely rare, and has a chance of less than one case occurring per 100,000 births. Such things do happen. This is called parasitic twin.

What Is A Parasitic Twin?

It is an extremely rare type of cojoined twin where a baby is born with an underdeveloped twin attached to its body. This condition is also known as vestigial twins. The condition is very closely related to conjoined twins, where babies are connected at birth and share organs. However, the main difference is that in conjoined twins, there are two developed babies, whereas in parasitic twins, only one is fully developed, other one is underdeveloped and non functional.

In such a case, the twin who is developed is medically known as the autositic or the dominant twin. The dominant twin is healthy in most aspect but may have extra tissue, organs, or limbs from the parasitic twin.

The parasitic twin may be attached with the dominant twin through several places. The common joints are at the head, torso, chest, pelvis, buttocks, or back. In these cases, the parasitic twin is not alive and they die either in the womb or during the childbirth.

Doctors Remove Parasitic Twin

Now, let's go back to the case we referred to, where a young teenager had an extra pair of limbs attached to chest. The teenager who has not been named is from Uttar Pradesh's Unnao neighbourhood, and was treated in AIIMS, Delhi. The team of doctors successfully removed the extra set of limbs from his body.

Dr Asuri Krishna, who led the team of specialist who surgically removed the extra limbs told the BBC that only 40 to 50 cases of parasitic twins have been documented in world medical literature, and in those cases, the surgery had been attempted on children. The doctor said that without much medical literature to guide them, the team of doctors depended on "intuition, skill and knowledge".

The doctor shared that the child had two fully formed legs, buttocks and external genitalia, which weighed around 15kg "protruding from his abdomen".

How Was The Surgery Performed?

The doctor shared that first they identified how interconnected the parasitic and host twins were. The doctors took scans and found that parasitic twin was attached to the teen's breastbone. The blood was being supplied from a vessel in his chest. However, "there wasn't much connection with other main organs like the liver or kidneys," said Dr Krishna. The team also found a large cyst in the teen's abdomen.

Then the surgery was performed in two stages. In the first stage, the parasitic twin was removed. Then the cystic mass was extracted from the surrounded area. The entire surgery was completed in two and a half hours and the team of doctors included radiologists, anaesthetists, and plastic surgeons.

The biggest challenge was when the teen's blood pressure dropped as 30 to 40% of his blood flowed to the parasitic twin, however, the doctors were prepared for it and they stabilized him.

Post-viral syndromes are a classic example of the body not feeling better even after the viraemia is over. When a viral infection ends, most people expect life to quickly return to normal.

For many, it does, but for some, recovery stretches on for weeks or even months. This condition, often called a post-viral syndrome, is now being seen more clearly across the country, especially after the COVID-19 pandemic. Thus, the main question that arises is why doesn’t recovery end when the infection is gone? The answer is that the body does not always ‘reset’ immediately.

Why Symptoms Continue After the Infection Clears?

During an infection, the body’s defense system becomes highly active to fight the virus. In some people, this response does not completely settle down even after the virus has been cleared. This can lead to ongoing tiredness, body aches, or a general feeling of being unwell. This could be due to the immune system remaining partially activated.

In certain cases, the body’s defense system may even start reacting in an unbalanced way, affecting normal tissues. This is why some people develop symptoms like joint pains, palpitations, or dizziness after a viral illness, even though tests may not show an active infection.

Another important reason is energy depletion. Viral infections can temporarily affect how the body produces and uses energy. As a result, even small physical or mental efforts can feel exhausting. Many patients describe a pattern where they feel better, try to return to normal activity, and then feel worse again. This cycle can delay full recovery. The nervous system can also be affected. Some people experience what is commonly called ‘brain fog’, poor sleep, or a sense of imbalance in heart rate and blood pressure. These symptoms are real and are part of the body’s recovery process.

POTS Syndrome

Also, there is something called POT (Positional Orthostatic Tachycardia) syndrome. Patients, when they get up and stand, develop mild giddiness and palpitations.

It is also important to understand that the body may take time to rebuild strength. Muscle loss, physical inactivity, and lack of appetite are common effects following an illness.

Why Recovery Should Not Be Rushed

Consequently, when an individual has recovered from the virus, it is more than just getting rid of the virus. It involves restoring and getting stronger over time. Most importantly, recovery should never be rushed. Pushing too hard or returning to high levels of activity too soon after becoming ill can lead to worsening of symptoms and therefore prolong the recovery time.

A more effective way to recover is by taking a gradual, steady approach. Recovery involves resting adequately, maintaining a nutritious diet, engaging in light exercise and receiving adequate amounts of sleep and at the same time being aware of how your body feels. Long-term symptoms are not in your head. They are part of the process of healing that occurs after some forms of infection.

Most people will recover, but patience and using proper methods are key to recovering completely. It is also important to understand that recovery involves rebuilding the strength that the body needs time to restore this balance.

It is important not to get carried away assuming post-viral syndrome, but consult a physician and not miss out on an underlying medical disorder, and investigate appropriately.

Non-alcoholic fatty liver disease (NAFLD) is the commonest non-communicable disease in Indian women, with a prevalence rate of 35%. Globally, 30% of the population is suffering from NAFLD, and this projection is expected to progress to 56%, in a similar range to diabetes and obesity.

In India, the high rate of NAFLD is driven by the adoption of a westernized lifestyle, associated comorbidities like diabetes, obesity & hypertension. Fatty liver is known to progress to cirrhosis (end-stage liver disease) or liver cancer (hepatocellular cancer) if left untreated, which affects the survival rates and implicates a poor prognosis.

Unfortunately, it’s a silent disease and often presents at an advanced stage, leading to serious complications.

Why Women Face Different Risks Than Men

Women tend to have different outcomes with fatty liver disease when compared to men. Women may have a higher risk of life secondary to NAFLD when compared with men of the same age group. Conditions like age of menarche (first menstrual period), menopause status, alteration in reproductive hormones, and sarcopenia (muscle loss) may affect the development of NAFLD. Hormonal issues like oestrogen deficiency and Polycystic Ovarian Disease (PCOD) increase the risk of developing NAFLD. Women with type 2 diabetes, obesity, and larger waist circumference (metabolic syndrome) are more prone to NAFLD.

Besides physiological and hormonal factors, there are social and cultural factors like limited autonomy for women, hierarchy based on earning potential, and poor literacy levels (especially in rural regions), which may create health neglect or gender bias towards women’s health, and conditions like NAFLD can go neglected or ignored.

Fatty Liver Disease Is Preventable and Reversible

The urban populace has its own share of modern problems like alcohol, smoking, and a sedentary lifestyle. Fatty liver is totally preventable and reversible if diagnosed at an early stage with simple lifestyle modifications. Studies show that a diet high in protein and low in carbohydrates, or a diet with fruits and vegetables and whole grains combined with exercise for 30 minutes a day and 5 days a week, can significantly reverse fatty liver and liver cell inflammation.

There are no gender-based guidelines to treat or prevent this problem. In general, reducing the cardiovascular and metabolic risk remains the cornerstone to treat NAFLD in both men and women.

Weight Loss Can Significantly Improve Liver Health

Research shows that up to 10% weight loss can reduce liver scarring and inflammation, whereas between 5-10% weight loss can reduce liver fat significantly.

There is some evidence that suggests black coffee (without sugar), Vitamin E, and Omega-3 fatty acids help prevent and reverse NAFLD. Specific and early consultation with a specialist (e.g. cardiologist, endocrinologist, or a gynecologist) can control the morbidity and mortality around the problem. Fatty liver has reached an epidemic level problem and therefore needs mass screening & awareness programs.

Early Diagnosis Is the Key

Early diagnosis is key and can be achieved by simple USG of the liver or Fibro scan combined with simple blood tests, liver LFT’s (liver function tests). Unfortunately, there’s no pill to replace exercise or a healthy lifestyle; otherwise, it would have been a blockbuster medicine.

However, the good news is this deadly and silent disease has a simple and inexpensive solution: a healthy diet and plenty of exercise, which is accessible to all. There is also an urgent need to increase awareness in women on NAFLD and ways to combat it, so they can get access to life-saving treatment at the earliest.

For decades, thalassemia has been synonymous with lifelong blood transfusions, frequent hospital visits, and the persistent risk of iron overload. For patients and families, it has largely meant managing a chronic condition rather than truly treating it. That narrative, however, is beginning to change.

The recent approval of oral drugs for thalassemia by the US Food and Drug Administration marks a historic milestone. These oral, disease-modifying pyruvate kinase activators improve anemia in adults with non-transfusion-dependent (NTDT) and transfusion-dependent (TDT) \(\alpha\)- or \(\beta\)-thalassemia. For now, they are approved in the US and Saudi Arabia for adults with thalassemia, with European review ongoing.

It is offering a fundamentally different approach, one that targets the disease at its biological core rather than simply managing its complications. Yet, as this new era unfolds, a critical question remains: are patients being diagnosed early enough to benefit from it?

A shift from supportive care to targeted therapy:

Until recently, thalassemia management has depended heavily on blood transfusions and iron chelation therapy. While these interventions are life-saving, they do not correct the underlying defect in red blood cell production. Over time, repeated transfusions can lead to complications affecting vital organs such as the heart, liver, and endocrine system.

Oral drugs, however, work by activating pyruvate kinase in red blood cells, improving energy (ATP) production, and enhancing red cell survival. In simple terms, it helps the body produce more functional and longer-lasting red blood cells, leading to an increase in hemoglobin levels, reduced transfusion requirements, and improved quality of life, particularly with respect to fatigue, one of the most debilitating symptoms of the disease. Oral therapy working across a broader disease spectrum marks a significant advance.

India’s Hidden Burden

India bears one of the highest burdens of thalassemia globally, with an estimated 10,000–15,000 affected children born each year and a carrier frequency of approximately 3–4% in the general population. Despite this, a large number of cases remain undiagnosed or are diagnosed late, particularly in individuals with milder forms who may live for years with unexplained anemia.

Delayed diagnosis has far-reaching consequences. Patients may develop preventable complications, families miss opportunities for genetic counseling, and access to emerging therapies is delayed or entirely missed. In the era of precision medicine, such delays are no longer acceptable.

The Problem Of Misdiagnosis

A major challenge in India is the frequent misdiagnosis of thalassemia as iron deficiency anemia, especially in primary care settings. Many patients receive repeated courses of iron supplementation without clinical improvement, while the underlying genetic disorder remains unrecognized.

Certain clinical clues should prompt further evaluation: persistent microcytic anemia unresponsive to iron therapy, a family history of anemia or transfusion dependence, and a disproportionately high red blood cell count relative to hemoglobin levels. Diagnostic confirmation is straightforward with hemoglobin analysis using HPLC or electrophoresis; however, these tests are not always utilized at the appropriate time.

Diagnosis And Screening

The approval of oral drugs underscores a fundamental shift, from managing symptoms to modifying disease biology. However, these benefits are maximized when therapy is initiated early, before irreversible organ damage occurs, for which timely diagnosis is pivotal.

Thalassemia diagnosis begins with a complete blood count demonstrating microcytic anemia with low mean corpuscular volume and a relatively high red cell count. Peripheral smear findings include target cells and anisopoikilocytosis. Confirmation is achieved through hemoglobin analysis using HPLC or electrophoresis, which typically shows elevated HbA₂ in β-thalassemia trait. Molecular testing further identifies specific gene mutations, enabling definitive diagnosis and prenatal counseling.

Screening programs play a pivotal role. Carrier detection through HbA₂ estimation, premarital and antenatal screening, and cascade testing within families are essential strategies, particularly in high-prevalence populations like India.

The mutation spectrum in India is well characterized. The most common β-thalassemia mutation is IVS-I-5 (G→C), accounting for nearly half of cases, followed by IVS-I-1 (G→T), codon 41/42 deletion, codon 8/9 insertion, and the 619 bp deletion. In α-thalassemia, the –α³․⁷ deletion predominates. This knowledge allows for cost-effective targeted molecular screening.

For years, the central question in thalassemia was: how do we manage this disease?

Today, it is shifting to: how early can we treat it effectively? Oral drugs represent a major therapeutic advance; however, cost considerations, accessibility, and long-term real-world outcomes will influence their widespread adoption. Nevertheless, the direction is clear: thalassemia care is entering a transformative era. In modern medicine, early diagnosis is no longer just beneficial; it is truly transformative.