Pregnancy is usually a time of happiness and hope, but it also brings in the unexpected. While there is much talk placed on the health of the expectant mother, the quality sperm coming from the father could dramatically change the outcome of pregnancy. The latest study suggests the risks of sperm DNA damage, even increasing the risks of complications preeclampsia and birth prematurity.

In a groundbreaking research study conducted by scientists from Lund University in Sweden, scientists discovered that DNA damage in sperm increases the risk almost up to double that of preeclampsia, this is a dangerous condition that may arise during pregnancies characterized by high blood pressure. In addition, DNA anomalies also increase the risk of premature births, and this further entails increased related adverse health outcomes for infants born through such conditions.

The next step would be to find out which group of men respond best to methods to prevent and treat sperm DNA damage, and to test these methods to prevent pregnancy complications," said Dr. Amelie Stenqvist, a lecturer at Lund University. According to this study, a significant message is put forward that paternal health assumes an important role in a successful pregnancy.

It focused its research on men, specifically whose sperm contained high levels of DNA fragmentation. For instance, some 20% to 30% of babies born via in vitro fertilization have fathers whose sperm contains damaged DNA. The DNA fragmentation index, an indicator to assess the percentage of DNA damage in sperm, indicated that when the percentage of sperm with a DFI above 30% was observed, they had almost no chance of resulting in natural conception. Even a DFI greater than 20% showed that the chances of getting pregnant are highly risky as the risk factor for pregnancy complications like preeclampsia is much high.

Uncommon Complications during Pregnancy

The most alarming complication during pregnancy is preeclampsia. It affects approximately 5% to 8% of pregnancies worldwide, which can cause fatal conditions for both the mother and the baby. The new findings now point out that sperm DNA damage may contribute to this condition, especially if it is due to assisted reproductive techniques such as IVF pregnancies. The research found that a DFI above 20% doubled the risk of preeclampsia from a mere 5% to almost 11% per.

Apart from causing preeclampsia, DNA fragmentation in sperm is also known to increase the risk for prematurity. Most premature babies experience respiratory, neurological, and developmental complications. Therefore, some degree of early intervention might be important for prospective parents.

Some of the rarer, though serious complications include placental abruption, which is the separation of the placenta from the uterine wall and intrauterine growth restriction, a condition by which the baby does not grow normally in the womb. These conditions though rare are potentially catastrophic both to the mother and the child. Results from this study may help in establishing the contribution of the father in such pregnancies.

Further study into sperm DNA damage is of urgent interest with regard to its consequences for pregnancy outcomes. According to Professor Aleksander Giwercman of Lund University in the field of Reproductive Medicine, "the analysis of DFI should be introduced as routine test in all fertility clinics.". "It could give answers to couples who are having difficulties with infertility, but our latest result also shows that DFI analysis can be a method to identify high-risk pregnancies, explained Giwercman.

For many, DNA fragmentation in sperm is often treatable. Common causes are oxidative stress, age, smoking, being obese, and infections. Addressing these elements will likely reduce DNA damage in sperm for men, raising the chances for a healthy pregnancy and baby.

Overall, the study importance should take into consideration paternal as well as maternal health towards reaching for a healthy pregnancy. Though DNA fragmentation in the sperm is supposed to increase the risk factors for complications in pregnancies, the advances into novel treatment approaches and tests are likely to alleviate complications in many families. Thus the findings of this study offer optimism and pave a pathway to more holistic fertility treatments in the future.

Why do some relationships feel effortless and magnetic, while others slowly unravel despite our best intentions? According to neuroscientist Andrew Huberman, the answers lie deep within our early childhood experiences and the intricate wiring of the brain.

In a recent episode of Huberman Lab titled “Essentials: The Science of Love, Desire & Attachment,” Huberman explores how biology and psychology work together to shape the way we connect, commit, and sometimes drift apart. What makes the conversation compelling is how it bridges hard science with very human emotions.

Our First Bonds Shape Our Love Stories

Huberman begins with a powerful idea: the way we love as adults often echoes how we were loved as children.

He refers to the landmark “Strange Situation” experiment by psychologist Mary Ainsworth. In this study, toddlers were briefly separated from their caregivers and then reunited. Researchers closely observed how the children reacted. Some felt secure and soothed upon return. Others were anxious, avoidant, or distressed.

These early attachment patterns, Huberman explains, frequently resurface in adult romantic relationships. A securely attached child may grow into a partner who trusts and communicates well. An anxious child may become someone who fears abandonment. An avoidant child may struggle with emotional closeness.

The hopeful part? These patterns are not destiny. Awareness allows change. Once people recognize their emotional blueprint, they can reshape it.

Love Is Not in One Spot in the Brain

Romantic connection is not housed in a single “love center.” Instead, multiple brain regions activate in sequence to create desire, attraction, empathy, and long term bonding.

Huberman clears up a common myth about dopamine. Many people think of it as the pleasure chemical. In reality, it is more about motivation and pursuit. Dopamine fuels craving and drives us toward a person we find compelling. It is the chemical that makes you check your phone, wait for a message, or feel a rush at the thought of someone.

But desire alone does not sustain love.

For deeper attachment, empathy circuits come into play. The prefrontal cortex and the insula are especially important. The insula helps us sense our internal bodily state, a process known as interoception. It allows us to feel our own emotions while tuning into someone else’s. This shared emotional awareness strengthens bonds.

The Role of “Positive Delusion”

One of the most fascinating ideas Huberman discusses is what he calls “positive delusion.” For long term stability, the brain benefits from believing that your partner is uniquely special. This slight bias, almost a romantic illusion, reinforces commitment.

It is not about ignoring flaws. It is about genuinely feeling that this person, out of billions, holds a singular place in your emotional world. Biologically, this strengthens attachment pathways.

Why Relationships Fall Apart

Huberman also references research from the Gottman Lab at the University of Washington. Decades of data reveal four behaviors that predict relationship breakdown: criticism, defensiveness, stonewalling, and contempt.

Stonewalling happens when one partner emotionally withdraws and stops responding. But the most toxic behavior is contempt. Researchers have described it as acid to a relationship because it corrodes trust and shuts down empathy. Once contempt takes root, the neural circuits that support connection begin to weaken.

In the end, love is both chemistry and choice. Our brains may set the stage, but awareness, empathy, and daily behavior determine whether attachment deepens or quietly falls away.

For decades, scientists believed the gradual loss of the Y chromosome in ageing men did not matter much. But a growing body of research now suggests otherwise. Studies show that losing the Y chromosome in blood and other tissues is linked to heart disease, cancer, Alzheimer’s disease and even shorter lifespan. The crux is simple but striking. As men age, many of their cells quietly lose the Y chromosome, and this loss may be shaping men’s health in ways we are only beginning to understand.

Aging And The Disappearing Y Chromosome

Men are born with one X and one Y chromosome. While the X carries hundreds of important genes, the Y is much smaller and contains just 51 protein coding genes. Because of this, scientists long assumed that losing the Y in some cells would not have serious consequences beyond reproduction.

However, newer genetic detection techniques tell a different story. Research shows that about 40 percent of men aged 60 have some cells that have lost the Y chromosome. By age 90, that number rises to 57 percent. Smoking and exposure to carcinogens appear to increase the likelihood of this loss.

This phenomenon, known as mosaic loss of Y, does not occur in every cell. Instead, it creates a patchwork in the body where some cells carry the Y chromosome and others do not. Once a cell loses the Y, its daughter cells also lack it. Interestingly, Y deficient cells seem to grow faster in laboratory settings, which may give them a competitive edge in tissues and even in tumors.

Why Would Losing The Y Matter?

The Y chromosome has long been viewed as mainly responsible for male sex determination and sperm production. It is also uniquely vulnerable during cell division and can be accidentally left behind and lost. Since cells can survive without it, researchers assumed it had little impact on overall health.

Yet mounting evidence challenges that assumption. Several large studies have found strong associations between loss of the Y chromosome and serious health conditions in older men. A major German study reported that men over 60 with higher levels of Y loss had an increased risk of heart attacks. Other research links Y loss to kidney disease, certain cancers and poorer cancer outcomes.

There is also evidence connecting Y loss with neurodegenerative conditions. Studies have observed a much higher frequency of Y chromosome loss in men with Alzheimer’s disease. During the COVID pandemic, researchers noted that men with Y loss appeared to have worse outcomes, raising questions about its role in immune function.

Is Y Loss Causing Disease?

Association does not automatically mean causation. It is possible that chronic illness or rapid cell turnover contributes to Y loss rather than the other way around. Some genetic studies suggest that susceptibility to losing the Y chromosome is partly inherited and tied to genes involved in cell cycle regulation and cancer risk.

However, animal research offers stronger clues. In one mouse study, scientists transplanted Y deficient blood cells into mice. The animals later developed age related problems, including weakened heart function and heart failure. This suggests the loss itself may directly contribute to disease.

A New Chapter In Men’s Health

So how can such a small chromosome have such wide ranging effects? While the Y carries relatively few genes, several of them are active in many tissues and help regulate gene activity. Some act as tumor suppressors. The Y also contains non coding genetic material that appears to influence how other genes function, including those involved in immune responses and blood cell development.

The full DNA sequence of the human Y chromosome was only completed recently. As researchers continue to decode its functions, the message for men’s health is becoming clearer. Ageing is not just about wrinkles or grey hair. At a microscopic level, the gradual disappearance of the Y chromosome may be quietly influencing heart health, brain health and cancer risk.

Understanding this process could open new doors for early detection, personalized risk assessment and targeted therapies that help men live longer and healthier lives.

First wife of singer Udit Narayan, Ranjana Narayan Jha made serious allegations against him, claiming that he forced her to get hysterectomy. She filed a police complaint earlier this week at the Women's Police Station in Supaul district, Bihar.

She accused Udit Narayan and his two brothers Sanjay Kumar Jha and Lalit Narayan Jha and his second wife Deepa Narayan of a criminal conspiracy that lead to hysterectomy - the surgical removal of uterus, without her knowledge. As per an NDTV report, "She claimed she became aware of this only years later during medical treatment."

Udit Narayan's First Wife's Allegations

As per the complaint, Udit and Ranjana were married on December 7, 1984, in a traditional Hindu ceremony. Udit then moved to Mumbai in 1985 to pursue his music career. She later learned through media that he had married another woman Deepa. As per the complaint, he continued to mislead her whenever she confronted him.

As per the complaint, in 1996, she was taken to a hospital in Delhi under the pretext of medical treatment, where, she claims that her uterus was removed without her knowledge. She said that she was compelled to file a complaint years after being ignored. "You all know that Udit Narayan ji repeatedly makes promises but does not fulfill them. He has not done anything till now, which is why I have come to the Women's Police Station. I deserve justice," she said.

"Nowadays, I am constantly unwell and need his support. But Udit Narayan is neither saying anything nor doing anything. He came to the village recently and left after making promises once again," she said, as per a Hindustan Times report.

What Is Hysterectomy?

It is the surgical removal of one's uterus and cervix. There are different kinds of hysterectomy available, which depends on the condition of the patients.

Total Hysterectomy

This removes uterus and cervix, but leaves ovaries. This means the person does not enter menopause after the surgery.

Supracervical Hysterectomy

Removing just the upper part of the uterus and leaving the cervix. This could also be when your fallopian tubes and ovaries are removed at the same time. Since, you have a cervix, you will still need Pap smears.

Total Hysterectomy With Bilateral Salpingo-oophorectomy

This is the removal of uterus, cervix, fallopian tubes and ovaries. This will start menopause immediately after the surgery.

Radical Hysterectomy With Bilateral Salpingo-oophorectomy

This is the removal of uterus, cervix, fallopian tubes, ovaries, the upper portion of your vagina, and some surrounding tissue and lymph nodes. This is done to people with cancer. Patients who get this enter menopause right after the surgery.