TRACE Global Health & Biomedical Research

Your energy field contains within it the seeds of it’s own healing and regeneration. Period. I think the 5G, wifi, bluetooth and other artificial non-native frequencies not only disrupt your energy field, i think they can access it and manipulate it too!

Content of a thesis or a report on any research project involving data of any kind

by Tefko saracevic

Please find part 2 & 3 in the comment section

What’s is a PhD explains James Hayton

In the 1980s, AIDS was a death sentence and no one knew why. She cloned the virus that caused it—and gave the world the key to fighting back.
Her name was Flossie Wong-Staal.
And she decoded the virus that was killing thousands.
Yee Ching Wong was born on August 27, 1946, in Guangzhou, China, during a time of upheaval and uncertainty. Her family fled to Hong Kong when she was young, escaping political turmoil for a chance at safety and opportunity.
In Hong Kong, she attended an all-girls Catholic school where her teachers gave English names to their students. Her teacher chose "Flossie"—after a typhoon that had recently hit Hong Kong. The name stuck. Yee Ching Wong became Flossie Wong.
Flossie excelled in science and mathematics. She was curious, precise, driven. She loved the clarity of scientific questions—problems that had actual answers if you asked the right questions and did the work to find them.
In 1965, at age 18, Flossie left Hong Kong for the United States to attend the University of California, Los Angeles (UCLA). She earned her bachelor's degree in bacteriology in 1968, then stayed for her PhD in molecular biology, which she completed in 1972.
Molecular biology was cutting-edge science in the early 1970s—the study of how genes and proteins work at the cellular level, how organisms function at their most fundamental level. It required patience, precision, and the ability to work with technology that was constantly evolving.
Flossie was exceptional at all of it.
After completing her PhD, she married Steven Staal and became Flossie Wong-Staal—the name she would carry through her most important work.
In 1973, Flossie joined the National Institutes of Health (NIH) in Bethesda, Maryland—one of the premier research institutions in the world. She worked in the lab of Robert Gallo, a virologist studying retroviruses—a particularly tricky type of virus that inserts its genetic material into host cells.
For nearly a decade, Flossie did important but relatively quiet work on retroviruses and cancer. She was building expertise, developing techniques, learning how to decode the genetic mysteries of viruses.
And then, in the early 1980s, everything changed.
People were dying.
At first, it was just a few cases—mostly gay men in San Francisco and New York—coming down with rare infections and cancers that healthy immune systems should easily fight off. Pneumocystis pneumonia. Kaposi's sarcoma. Diseases that almost never killed young, otherwise healthy people.
But these men were dying.
By 1981, the Centers for Disease Control was reporting clusters of these mysterious deaths. By 1982, the disease had a name: Acquired Immune Deficiency Syndrome. AIDS.
No one knew what caused it. No one knew how it spread. No one knew how to treat it.
Fear spread faster than facts. The disease was called "gay cancer" and "the gay plague." People assumed it only affected gay men, then drug users, then hemophiliacs receiving blood transfusions. Panic and prejudice mixed with genuine terror as the death toll climbed.
Thousands were dying. And the medical community had no idea why.
Scientists suspected a virus—something that was destroying people's immune systems, leaving them defenseless against infections. But identifying which virus, how it worked, and how to stop it was an enormous challenge.
Flossie Wong-Staal and Robert Gallo's lab at NIH joined the race to find answers.
In 1983-1984, Gallo's team—with Flossie as a key researcher—identified the virus that caused AIDS. They called it HTLV-III (later renamed HIV, Human Immunodeficiency Virus). Other researchers, including Luc Montagnier's team in France, made similar discoveries around the same time.
But identifying the virus wasn't enough. Scientists needed to understand it. How did it work? How did it replicate? How did it hide from the immune system? How could they fight it?
To answer those questions, someone needed to clone the virus.
Cloning a virus means isolating its genetic material and making copies that can be studied in detail—essentially creating a complete genetic blueprint. This allows researchers to understand every gene, every protein, every mechanism the virus uses to infect and replicate.
No one had ever successfully cloned HIV.
In 1985, Flossie Wong-Staal became the first.
She isolated HIV's genetic material—its RNA—and painstakingly mapped its entire genome. She identified the genes that controlled how the virus infected cells, how it replicated, how it evaded the immune system. She published her findings in the journal Science, providing researchers worldwide with the complete genetic blueprint of the virus killing thousands.
This was a breakthrough of staggering importance.
With the virus cloned and its genetic structure understood, researchers could finally develop tools to fight it. Blood tests could be created to detect HIV infection—critical for screening blood donations and stopping the spread through transfusions. Diagnostic tests could identify who was infected before symptoms appeared. And most importantly, scientists could begin developing drugs that targeted specific parts of the virus's lifecycle.
Flossie's cloning of HIV gave the world its first real weapon against the epidemic.
Blood tests developed from her work meant that by the late 1980s, donated blood could be screened for HIV, essentially ending the spread through transfusions. People could learn their HIV status and take precautions to protect others. The virus that had been spreading invisibly could now be detected.
Her research also laid the groundwork for antiretroviral therapy—drugs that target different stages of HIV's lifecycle, preventing it from replicating. These treatments, developed throughout the 1990s and 2000s, transformed HIV from a death sentence into a manageable chronic condition.
Today, people with HIV who receive proper treatment can live normal lifespans. They can have HIV-negative children. They can reduce their viral load to undetectable levels, meaning they cannot transmit the virus to others.
None of this would have been possible without understanding the virus's genetic structure.
None of it would have been possible without Flossie Wong-Staal's work.
But recognition didn't come easily.
Molecular biology in the 1980s was a field dominated by white men. Women scientists faced constant skepticism, being passed over for credit, having their contributions minimized. Asian women faced even more barriers—stereotypes, dismissiveness, the assumption that they were assistants rather than principal investigators.
Flossie faced all of it.
But she kept her focus on the work. She later said simply: "The virus didn't care who I was. It just needed to be understood."
She wasn't interested in fighting for recognition. She was interested in solving the problem. The virus was killing people. Politics and prejudice and career advancement mattered less than finding answers.
In 1990, the Institute for Scientific Information named Flossie Wong-Staal the top woman scientist of the 1980s based on the number of times her research had been cited by other scientists. This wasn't an opinion—it was data showing that her work had been foundational to an entire decade of AIDS research.
Flossie left NIH in 1990 to become a professor at the University of California, San Diego, where she continued her research. She held over 30 patents for her work on HIV and gene therapy. She trained a new generation of molecular biologists. She continued pushing the boundaries of what science could achieve.
She never stopped working to turn scientific curiosity into survival.
Flossie Wong-Staal died on July 8, 2020, at age 73—during another global pandemic, COVID-19. The irony wasn't lost on anyone: a scientist who had helped the world fight one deadly virus died while the world struggled against another.
But her legacy lives on in every person living with HIV who receives treatment. Every blood donation that's screened for the virus. Every drug that prevents HIV from replicating. Every life extended by antiretroviral therapy.
Millions of people are alive today because Flossie Wong-Staal cloned a virus.
Her story reminds us that courage isn't always loud. It doesn't always happen on battlefields or in dramatic public protests. Sometimes courage is found in a quiet laboratory, where a scientist spends years decoding a virus that the world is terrified of, that colleagues barely understand, that seems impossible to defeat.
Sometimes courage is refusing to give up when thousands are dying and no one has answers.
Sometimes courage is being a woman in a field that doesn't want you there, being an Asian woman in a country that stereotypes you, and doing the work anyway because lives depend on it.
Flossie Wong-Staal didn't set out to be a hero. She set out to understand a virus. But in doing so, she saved millions of lives.
She proved that science can solve what politics and fear cannot.
She showed that the most important battles are sometimes fought not with weapons, but with microscopes and patience and refusal to accept that a problem is unsolvable.
When the AIDS epidemic began, it was a mystery killing thousands. Scientists didn't know what caused it. They didn't know how to stop it.
Flossie Wong-Staal became the first person to clone HIV.
That single breakthrough gave the world the key to understanding the virus, detecting it, and eventually treating it.
She turned scientific curiosity into survival.
She gave the world back its hope.
And every person living with HIV today carries a trace of her legacy—the quiet scientist who decoded a killer and refused to let it win.

In a revolutionary medical advance, scientists have successfully restored natural hearing by injecting stem cells into the inner ear, marking the first time in history that damaged auditory nerves have regrown. This breakthrough, achieved in early clinical trials, offers new hope to more than 430 million people worldwide who suffer from hearing loss due to nerve damage.
The treatment works by introducing specialized stem cells capable of regenerating the delicate nerve fibers that connect the inner ear’s hair cells to the brain—pathways that, once destroyed, have long been considered irreparable. Within weeks, trial participants began showing measurable improvements in sound perception and speech recognition, indicating that functional nerve restoration had occurred.
Researchers believe this discovery could pave the way for regenerative hearing therapies that go beyond hearing aids or cochlear implants, offering a natural way to restore auditory function. It may also open new possibilities for treating neurological conditions related to sensory damage.
While larger trials are still underway, experts are calling this a landmark achievement in regenerative medicine, one that brings humanity closer to curing hearing loss entirely.

Graduation Speech

Things about PhD that nobody told me ever

🧬 The Nobel Prize Breakthrough That Showed How Cells Clean and Heal Themselves

Japanese biologist Yoshinori Ohsumi earned the Nobel Prize in Medicine for discovering a natural process that keeps us alive and healthy — autophagy.

This process acts like the body’s internal recycling system. When food is scarce, cells break down their damaged parts, convert them into energy, and rebuild themselves stronger than before.

Ohsumi’s work revealed that autophagy isn’t only about endurance — it’s vital for long-term health. It protects the body by removing faulty cells linked to aging, cancer, and neurodegenerative diseases.

His findings reshaped our understanding of fasting and healing, proving that the body’s quiet moments of rest are when it truly repairs itself.

A new study from the University of California, San Francisco has found that drinking high-flavanol cocoa twice daily for 30 days can significantly boost health markers. Participants saw their circulating stem cells double compared to controls, along with a 47% improvement in endothelial function — vital for strong blood vessels and healthy circulation.

The benefits are linked to epicatechin, a natural flavonoid in cocoa that enhances blood flow and supports tissue repair. This research suggests that organic cocoa may be more than just a sweet indulgence — it could play a role in cardiovascular health, regeneration, and long-term wellness.