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For over 15 years, Dr Anthony Shum, a pulmonologist at the University of California, San Francisco has been studying a rare genetic disorder called the COPA Syndrome. It stands for coatomer subunit alpha and is a rare, inherited disorder that affects the lungs, joint, and kidney. The National Organization for Rare Disorder also notes that it is a genetic autoimmune disorder that is caused by mutations in the COPA gene. This disease affects families unpredictably—some individuals with the mutation develop severe lung damage early in life, while others remain completely healthy. Now, Shum’s team has discovered a protective genetic variant that may offer new hope for treatment.
Researchers found that some relatives of COPA Syndrome patients stayed healthy despite carrying the same COPA gene mutation that causes the disease. The key difference? These unaffected individuals had a protective version of another gene called HAQ-STING.
When scientists introduced HAQ-STING into diseased lung cells from COPA patients, the cells returned to a balanced state, suggesting that this gene could be used as a therapy.
“We really think HAQ-STING could be a gene therapy tool and a step toward a cure,” said Shum, whose findings were published in the Journal of Experimental Medicine.
Shum’s journey into COPA Syndrome research began in 2011 when he treated a young woman, Letasha, who had severe lung bleeding. Her mother, Betty Towe, mentioned that Letasha’s sister, Kristina, had suffered from similar symptoms. Over the years, Betty had taken both daughters on a four-hour trip to UCSF for treatment. After tracing their family history, Shum discovered that their distant relatives in Texas and Oakland also had lung problems and arthritis. In 2015, Shum, along with scientists from Baylor College of Medicine and Texas Children’s Hospital identified the COPA gene mutation. They realized that it was the common factor behind the illness. However, only some of the 30 individuals with the mutation actually developed symptoms, leaving a major question unanswered.
It was established that it occurs when a mutated COPA gene causes another gene STING to go overdrive. The STING that helps fight infections in COPA patients, remain permanently active, which leads to chronic inflammation that damages the lungs, kidneys, and joints. In 2020, while studying STING’s role in the disease, researchers discovered a key variation: HAQ-STING. This version of STING, present in about one-third of the population, appeared to neutralize the harmful effects of the COPA mutation.
To confirm their theory, the scientists needed both affected and unaffected family members to participate in the testing. Letasha, Kristina and Betty immediately volunteered. The researchers then analyzed DNA samples from 26 COPA patients and their healthy relatives. They also conducted CT scans and blood tests to ensure that unaffected members did not have any hidden symptoms. When the findings were all clear, it was revealed that all the healthy individuals had HAQ-STING, while none of the COPA patients did. This was the first known case of a common gene variant completely protecting against a severe genetic disease.
Encouraged by this discovery, researchers tested HAQ-STING’s effects in a lab setting. They introduced it into diseased lung cells from COPA patients, and the cells returned to normal function.
Shum believes HAQ-STING could lead to game-changing treatments, including:
Before publishing their findings, Shum called Betty with the news—her own HAQ-STING gene had protected her from the disease. He also informed Letasha and Kristina, who were overwhelmed with relief and joy.
“We always believed Dr. Shum would get to the bottom of it,” said Letasha. “This discovery is going to change lives.”
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Type 2 diabetes was once rare among the young. Now, it is a common diagnosis for Indians in their 20s and 30s. The country currently faces a massive health crisis with 101 million confirmed diabetic patients and 136 million prediabetics. This sudden spike did not happen because human genetics broke down overnight. It happened because the way we live has completely transformed.
Asians (Indians ) already have a " thin- fat " body phenotype, which has a heavy genetic disadvantage. Even when an Indian person appears thin, they typically carry a much higher body fat percentage than a European person of the exact same weight. This fat builds up dangerously as visceral fat around the internal organs. Because of this, Indians develop severe insulin resistance at a much lower Body Mass Index (BMI).
Secondly, we tend to have faster beta-cell exhaustion. The pancreas simply stops producing enough insulin earlier in life.
Thirdly, if you have a positive family history, then the risk is higher and happens at an early age as compared to the previous generation.
But definitely it is not just genetics. Our DNA remains exactly the same as it was a century ago. Still, the age of onset is dropping at an alarming rate. Data from the massive ICMR-INDIAB study reveals that the real "take-off" point for diabetes now sits squarely in the 25 to 34 age bracket. Out of all the people under 25 diagnosed with diabetes today, one in four has Type 2. It used to be very rare to see anything other than Type 1 in young adults.
Now, the situation is completely different. States like Goa, Kerala, and Tamil Nadu are recording huge numbers, especially in city areas. Data collected in Tamil Nadu from 2006 to 2016 proved that the 20 to 39-year-old age group was getting sick at a faster pace than older generations. Across India, the total prevalence rate jumped from 7.1 percent to 11.4 percent. If current trends hold, we are looking at 152 million cases nationwide by 2045.
The absolute driver behind this youth explosion is a drastic shift in how we live. Urbanization wiped out physical activity. Young professionals sit at desks for ten hours, endure stressful commutes, and spend their remaining free time staring at screens.
Our diets worsened at the same time. Traditional balanced meals gave way to heavily refined carbohydrates and ultra-processed food, which the younger generation highly depends on. Polished white rice, refined wheat, and cheap ultra-processed foods flood our daily plates. Young people eat far less protein and fiber. This combination of daily sugar spikes and zero physical movement directly causes the abdominal obesity driving this epidemic.
The rapid rise in youth diabetes comes down to a severe gene-environment mismatch. Young Indians live in bodies biologically programmed to store fat to survive famines, but they now live in an environment of constant fast food and zero movement. We cannot rewrite our DNA. We can, however, change our daily habits.
As per RSSDI, early medical screening before age 25 is now an absolute necessity. Replacing heavy carbs with a low-carb, high-protein diet, fixing bad sleep schedules, and making time for daily physical activity can stop this crisis. Youth diabetes is entirely preventable. We just need to act before it is too late.
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India holds the record for the highest number of blind individuals in the entire world. The impact that the fact can have on those who hear it should be enough to cause them to stop dead in their tracks. The fact that it is preventable makes it all the more problematic, more than just a number. According to experts from AIIMS, New Delhi, more than 85% of blindness is preventable in the country, and not due to an incurable disease or insurmountable genetic condition.
The overwhelming majority of instances of blindness in India are due to a lack of glasses, or could be prevented by a surgical procedure lasting approximately 20 minutes. And yet, we are left with millions of blind people.
Preventable blindness refers to vision loss that could have been avoided through timely screening, treatment, correction, or surgical intervention. It is not the same as blindness caused by trauma, hereditary disorders, or conditions beyond medical reach.
The leading culprits in India are well-documented: cataract is responsible for 66.2% of all blindness cases, uncorrected refractive errors for 18.6%, glaucoma for 6.7%, and diabetic retinopathy for 3.3%. Every single one of these is either treatable or manageable with early detection.
Cataracts can be reversed in under thirty minutes. Refractive error can be corrected with spectacles that cost less than a meal at a restaurant. Diabetic retinopathy, if caught early, can be treated before it takes vision at all.
The tragedy of preventable blindness is not medical. It is systemic.
India carries one of the heaviest burdens of vision loss in the world, and the weight is only growing. There are disparities regarding the burden of vision loss. There are about 75% of the resources and health infrastructure that are found in urban locations whereas there are only 27% of the population and most of the hundreds of millions of people living in rural India do not have access to see an eye doctor because they would need to take a day off work without pay, travel over one hundred kilometers, and pay for the office bill in cash out-of-pocket.
Most people do not try to see an eye doctor, and when they do, it is usually too late to treat the problem.
At the same time, the problem has been exacerbated by the rapidly aging population of India and the incidence of age-related disorders increasing, such as cataracts and the diabetes epidemic, which is one of the largest in the world, has been causing a massive increase in diabetic retinopathy, which will cause continuing loss of vision without proper detection. These are not isolated cases but rather a direct result of the failure of the health care system in India to keep pace with the growing number of diseases in the population.
On the infrastructure side, the priority must be decentralization. Eye care cannot remain a service that lives primarily in urban hospitals. Vision screening needs to be integrated into primary health centers, school programs, and community outreach camps. The private sector, which runs over 70% of all eye care institutes in India, has a role, but so does public policy in incentivizing rural postings and strengthening district-level facilities.
On the workforce side, training mid-level ophthalmic personnel, optometrists, ophthalmic nurses, and vision technicians can extend the reach of a limited specialist pool significantly. Telemedicine-assisted models, where a technician in a rural camp transmits data to a city-based specialist for review, have already shown promise and need to be mainstreamed rather than treated as pilot experiments.
Early detection is arguably the most powerful lever of all. Most people in India visit an eye doctor only after vision loss is already severe. Routine screenings, especially for:
- Adults above 40
- People living with diabetes
- School-going children
Accessing vision care is not complicated. Availability is a major factor. Vision care must also be affordable to be accessible; currently, affordability is at the bottom of the list of priorities.
Examples of initiatives that have been implemented include subsidized cataract surgeries, free glasses for school children, free glasses for senior citizens, and community insurance models for eye care. All of these have been successful with valid results, and there’s plenty of evidence available that supports all these types of programs.
India can solve this. It has the necessary eye surgeon specialists, the model of care, and the evidence needed to make this happen. The issue preventing more people from receiving care, preventing blindness, which could be avoided, has always been a lack of awareness or attention to the problem to turn a statistic into an urgent need. At some point, we need to stop asking why this is happening and start asking why we will allow it to keep happening.
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Although classified as a rare disease, hemophilia in India is widespread and overlooked. According to the World Federation of Hemophilia (WFH), about 75 percent of individuals affected by hemophilia are undiagnosed across the globe, hence lack proper healthcare, which is associated with an elevated incidence of complications.
In India, the gap is stark. The WFH has provided statistics that indicate that India has one of the largest hemophilia populations worldwide, with approximately 24,000 patients registered, whereas the estimated prevalence is approximately 1.2 lakhs, indicating that a large pool remains undiagnosed or outside the care pathway.
The implications of being undiagnosed or not receiving appropriate medical care are both clinical and non-clinical. Many people are losing milestones, dreams, or are otherwise negatively affected by the anxiety associated with living with an undiagnosed condition. For clinicians, this "hidden population" poses a daunting and deeply concerning challenge.
They are not missing; rather, they remain unseen due to delayed recognition, often presenting only after irreversible damage has already set in.
Children with persistent symptoms of joint swelling, unexplained excessive bleeding after sustaining minor injuries, and other symptoms are usually diagnosed with other health conditions, like bone injuries or nutrient deficiencies.
This period of clinical ambiguity can extend for months or even years before appropriate diagnostic testing and referrals are initiated.
Joint damage is often established by the time a conclusive diagnosis is made, and may lead to reduced mobility or early deformity, chronic pain, disability, and loss of functional independence. Severe complications, including intracranial hemorrhage, continue to pose significant risks in inadequately treated patients.
The barriers to timely diagnosis are both clinical and systemic, ranging from limited awareness and low suspicion among primary care providers to fragmented referral pathways and frequent misdiagnosis. At the systemic level, uneven access to the diagnostic infrastructure persists.
The availability of coagulation tests and specialists is mainly limited to the tertiary settings, thus posing a problem for patients from tier 2 and tier 3 regions. It is vital to understand the costs associated with a delay in diagnosis in the context of how far hemophilia care has evolved.
Over the past decade, advances in treatment have significantly improved patient outcomes. Clinical goals are no longer limited to managing bleeds as they occur, but to preventing them altogether, making “zero bleeds” an achievable reality. This is where prophylaxis takes centre stage.
Where on-demand therapy treats hemophilia symptoms only after a bleeding episode has occurred, prophylaxis seeks to prevent bleeding completely and is considered the gold standard of care globally. It can bring about reductions in bleeds by up to 90% and maintain healthy joints, allowing children to achieve near-normal musculoskeletal development.
When initiated early, prophylaxis can prevent the onset of joint damage. However, when patients are diagnosed late, they often enter care only after irreversible complications have already occurred. This makes early identification not just important, but decisive in altering disease trajectory.
Encouragingly, progress is visible. Several Indian states have demonstrated that publicly funded hemophilia programs, including access to prophylaxis and decentralized care models, can significantly improve patient outcomes. Initiatives that integrate early patient identification, diagnostic access, and coordinated care pathways are beginning to reduce delays and expand equitable access.
These state-led efforts offer important lessons for making prophylaxis the national standard of care in India. Recognizing hemophilia early and initiating prophylaxis in time is not just a clinical goal; it is the most critical step in changing the life course of these patients.
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