It’s well known that Biden has a history of touching and sniffing the hair of little girls- the dude is a pervert. He’s also the worst president in the history of America. FOX News reports that Biden drew criticism from conservatives on social media over a comment he made to a young teenager in California where he told her “no serious guys until you’re 30.” “Now a very important thing I told my daughters and granddaughters — no serious guys until you’re 30!” Biden said to an unknown young woman at an event in Irvine, California. “Ok,” the woman said as the president leaned in close. “I’ll keep that in mind.” FOX reports that the video of the exchange was posted on Twitter by reporter Kalen D’Almeida, who claimed members of the Secret Service tried to prevent him from filming. The video has been viewed almost 3 million times and earned pushback from social media users.

Since the singer seemed to have lost a considerable amount of weight, magazines have been covering Céline Dion’s health. Her admirers expressed worry, claiming she no longer looks like the person she used to be. However, she insisted that she ought to be left alone. The singer, who was born in Canada, said to those who were critiquing her appearance in an interview recently “If I like it, I don’t want to talk about it. Don’t bother. Don’t take a picture. If you like it, I’ll be there. If you don’t, leave me alone. However, it was recently revealed by one of her representatives that Dion experiences muscle spasms, which interfere with her performance on stage. Dion was consequently forced to postpone her concerts in Las Vegas from November of last year to January 19 to February 5, 2022, in addition to the pandemic that altered the path of many people’s lives.

We’re bombarded with messaging trying to hijack our quick fear responses, says UC Berkeley political scientist Marika Landau-Wells. Brain research could tell us more about how to change our perception of what’s dangerous and what’s not. January 27, 2025 Key takeaways We learn what to be afraid of; once we fear something, it’s hard to change our perception. We’re bombarded with messaging trying to hijack our quick fear responses. Research on how the brain processes fear could help us persuade people to see dangers differently and influence how world leaders make decisions. Follow Berkeley Voices, a Berkeley News podcast about the people and research that make UC Berkeley the world-changing place that it is. Review us on Apple Podcasts. See all Berkeley Voices episodes.  Against her mom’s warnings, UC Berkeley political scientist Marika Landau-Wells watched Arachnaphobia as a kid. Ever since, she has been terrified of spiders. But over the years, she has learned to reason with her quick fear response — No, that spider is not 8 feet in diameter — and calmly trap them and put them outside. Marika Landau-Wells is an assistant professor of political science at UC Berkeley.Aidan Milliff We all encounter problems like this, she says, where we have quick reactions to things we’ve learned to fear. It might be something that is actually dangerous that we really should quickly react to, but it could also be a tiny, non-threatening spider. Each time, we have to decide what kind of problem it is and then how to respond. She says this task is especially hard today because we’re inundated with messages trying to hijack our fear response, from junky online ads to the way politicians speak. Landau-Wells studies how we make these kinds of decisions, and what influences how we act, especially in situations where there’s a lot on the line. Her research reveals just how hard it is to tell the difference between a threat that requires your attention and one that you can ignore, and could influence how world leaders make decisions about how to keep their countries safe. This is the fourth episode of our eight-part series on transformation. In eight episodes, we’re exploring how transformation — of ideas, of research, of perspective — shows up in the work that happens every day at UC Berkeley. New episodes of the series come out on the last Monday of each month.

UC Berkeley Professor Timothy Tangherlini uses lessons from folklore and AI to understand how social media fuels the spread of conspiracies, and how we can use storytelling tools to stem the tide of misinformation. Social media has removed some of the social “brakes” that prevent conspiracies and other misinformation from spreading, leading to a boom in their popularity.Getty Images for Unsplash February 5, 2025 Even in the face of overwhelming evidence, false narratives can be incredibly sticky. Many people insist that the earth is flat, that childhood vaccines cause autism, or that climate change is a hoax, despite ample scientific evidence to the contrary. “Stories are very powerful,” said Timothy Tangherlini, a UC Berkeley professor in the Department of Scandinavian and the School of Information. “We’re much more comfortable with hearing stories that confirm our beliefs than ones that challenge them.” Tangherlini sees narratives like these, and the many other conspiracies that are rife in today’s internet culture, as a type of modern-day folklore. As a computational folklorist, he uses AI tools to study how social media networks have accelerated the spread of conspiracies and false beliefs, and what, if anything, we can do to slow them down. Following an election cycle dominated by conspiracies and hoaxes — from elites controlling the path of hurricanes, to 20 million missing votes for Kamala Harris and immigrants eating people’s pets — Tangherlini’s work is more relevant than ever. Berkeley News spoke with Tangherlini about why conspiratorial thinking has flourished in recent years and how we might spread stories of inclusion and truth that are powerful enough to stem the tide of false belief. UC Berkeley News: What motivated you to study conspiracy theories through the lens of folklore and storytelling? Timothy Tangherlini: I think of conspiracy theories as narrative constructs, as fictional. And they can be very powerful because they are stories. Narratives are very efficient at encapsulating norms, beliefs and values — and when we tell them over and over, they get pared down to the most efficient kernel of narrative weight. Timothy Tangherlini is a UC Berkeley professor in the Department of Scandinavian and School of Information, director of the Graduate Folklore Program and associate director of the Berkeley Institute for Data Science.UC Berkeley These belief narratives — stories that we tell each other that we believe to be true — can influence belief, and these beliefs then create a feedback mechanism, so that once you’ve got a belief, it’s very hard to change it. You start to seek out narratives that confirm your beliefs. I’m particularly fascinated by the fact that so many of these stories wind up being about outside threats. Often, it’s the Ghostbusters question: When ghosts appear in the neighborhood, who are you going to call? Or, how are we going to deal with some sort of threat to the integrity of our community? These threats can then force real world action, an example of which we saw with the Jan. 6, 2021, U.S. Capitol attack. The question becomes: How do you interrupt these kinds of narratives when they start to have a significant impact on democratic institutions and civil society? We’re living in a world that seems rife with conspiracy theories. What is it about our current society that makes it so prone to conspiracies? We as humans tend to surround ourselves with people who have similar beliefs, and we also align our beliefs with the people around us. You might believe things, but you want to be part of the group, so you adjust your beliefs — you negotiate the boundaries of belief. On social media, your idea that the people that you’re interacting with share your beliefs, values and norms may not apply — in part because many of them may actually be robots. Tim Tangherlini This process has been profoundly interrupted by the advent of social media. The groups that we interact with online are no longer the close, homogeneous groups that we are used to and were socialized in, so the social brakes that used to be there have come off, and the speed and directionality of messaging has changed magnitude — things can get out much faster. People have also worked really hard to erode our trust in the media. We used to have newspapers of record, like the New York Times or the LA Times. You might not have agreed with their opinions, but you could trust the underlying reporting. Now there’s been a concerted effort to challenge the underlying reporting itself. And with the advent of generative AI, it’s also possible to generate not only audio recordings but also visual recordings — deep fakes — and newspaper articles that give the illusion of being true, but really aren’t. As soon as you start losing confidence in your news sources, then you’re going to turn to these other narrative sources — those could be your friends, they could be your family, or they could be people who you think share your values on the internet. Could you talk a little bit more about these social brakes and how social media has interrupted them? We’re all part of groups in real life, even if they are just friend groups or families. When I start talking, my family will often shut me down because they know that I just talk too much, right? Or, if I was out with friends for tacos and beer and I said, “Well, did you hear what happened in Roswell?” my friends would respond, “Shut up, Tim.” Those are the kinds of social brakes that we’re all familiar with. It can be as simple as that. But there are effectively no social brakes on social media. You might be interacting with people who just love to see a train wreck, and so they give you a thumbs up and away you go, off to the races. And on social media, your idea that the people that you’re interacting with share your beliefs, values and norms may not apply, in part because many of them may actually be robots. I … Read more

Dorsal Grasper provides an intuitive, collaborative grasping approach February 10, 2025 by Marni Ellery More than 15 million people worldwide are living with spinal cord injury (SCI), which can affect their sensory and motor functions below the injury level. For individuals with SCI between C5 and C7 cervical levels, this can mean paralysis affecting their limbs and limited voluntary finger and wrist flexion, making it difficult to grasp large, heavy objects. Now, a team of UC Berkeley engineers from the Embodied Dexterity Group has developed a wearable device to enhance grasping functionality in this population. Dubbed the Dorsal Grasper, this assistive device leverages voluntary wrist extension and uses supernumerary robotic fingers on the back of the hand to facilitate human-robot collaborative grasping. In a study recently featured in IEEE Transactions on Neural Systems and Rehabilitation Engineering, the researchers demonstrated for the first time how the Dorsal Grasper can expand users’ graspable workspace. Test subjects found that they could easily grasp objects anywhere they could reach their arm, without having to rotate their bodies, which can cause wheelchair users to lose their balance. Associate professor Hannah Stuart, Ph.D. student Andrew “Drew” McPherson and postdoctoral researcher Jungpyo Lee — all with the Department of Mechanical Engineering — spoke with UC Berkeley Engineering about their research and the challenges of designing a device that people will want to use. What’s unique about the Dorsal Grasper?  Hannah: We’ve designed the Dorsal Grasper to enable what we call collaborative grasping. People with tetraplegia will often retain the ability to extend the wrist backward but don’t have the ability to flex it forward, so they have this directionality. And people can be strong in their wrist, in extension, and that’s an important part of daily function. We wanted to enhance that capability by enabling grasping, but in such a way that the person is an active partner in the grasp. The Dorsal Grasper, with its supernumerary robotic fingers, can expand the range of graspable objects and workspace. (Photo by Adam Lau/Berkeley Engineering) Another unique feature is the device’s use of robotic fingers to grasp with the back of the hand. Today, robotic wearables often fit around the person’s fingers, which creates a tension between what the person and the robot each want to do. With supernumerary grasping, both the person and robot are free to act as they see fit. And while grasping with the back of the hand may look a little silly, we believe it has great advantages that could one day allow the Dorsal Grasper to be an accessible and effective device. Drew: This population also generally uses wheelchairs to get around. So it can be hard to approach certain surfaces head-on, like counters or the refrigerator, to grab something, given that the legs are in the way. And with limited trunk control and overall body mobility, that kind of graspable workspace, or being able to reach things off a counter, is really restricted. This device stands out in that you can grasp with one hand pretty much anywhere you can reach that arm, which greatly expands your workspace. And you can grasp larger objects by using the supernumerary robotic fingers. What did you learn from your latest in-lab tests of the Dorsal Grasper? Jungpyo: Based on our in-lab testing with the Dorsal Grasper, we found that subjects could reach their hand out and rotate their hand a lot. So they could simply rotate their head to see the location and then easily grasp the object. This was possible because the robotic finger could be controlled with just wrist extension, something they use all the time. In follow-up interviews, many subjects mentioned that this control method made operating the device feel really intuitive. Hannah: And we achieved such intuitive operation without relying on any fancy components, like EMG [electromyography] sensors or neural interfaces. Jungpyo: The person is a partner, controlling the robotic finger and wrist extension. For example, sometimes the force of the robotic finger is not enough to grasp a heavy object. In that case, a person can extend their wrist more and increase grasping force, so they can successfully achieve this grasping. And if we want to drop an object of any size, we can simply release our wrist and grasping force and drop the object immediately, without waiting for a robotic response. Compared to a fully robotic system, the Dorsal Grasper allows for a faster response. How does the Dorsal Grasper help advance the field of assistive technology? Drew: A lot of devices seek to replace or do the same type of grasping that people are doing already, and the Dorsal Grasper isn’t trying to do that at all. I haven’t seen a lot of devices that adequately support intent detection, which is a significant challenge within the field. With Dorsal Grasper, we’re able to use people’s residual strength and their ability to move their wrist. That partial body power allows the device to read their intention to grab things, which allows for fewer false positives, or fewer accidental grasps. And this then makes it a little bit easier to use the device. And it’s not about just the device, but how we’re assessing the device. We’re not simply creating tasks that highlight the benefits of the robot, but rather we’re looking at ways that this device might be able to help someone in real life. Often this process involves applying my own lived experience as a person with SCI. Drew, you’re about to wrap up your Ph.D. and have been working on this project for many years. What’s changed since you first started this research? Drew: What’s changed the most is how I think about usability and design. I’ve become more critical of how devices can be used and how they can also get in the way. I think a lot of these devices are looked at in a very narrow scope of, “here’s a couple sets of tasks that we’re going to demonstrate in a lab.” But that doesn’t necessarily translate. That said, I truly did … Read more

Scientists at the University of Birmingham have analysed Akkermansia muciniphila, a gut bacterium that feeds on mucus sugars, revealing its role in gut health and disease prevention. A new study has provided the first complete analysis of how Akkermansia muciniphila (AM), a beneficial gut bacterium, breaks down sugars in mucus. The research, published in Nature Microbiology on 31 January, sheds light on the molecular mechanisms behind this process, offering potential implications for gut health and disease management. Led by Dr Lucy Crouch from the University of Birmingham, the study identified 66 enzymes that AM uses to break down mucin, a key component of the mucus lining in the human gastrointestinal tract. The team used mucus from a pig model to observe how these enzymes function together to completely degrade mucin, marking the first systematic understanding of microbial digestion of O-linked sugars. “This is the first time that we have comprehensively seen how microbes break down the food source O-linked sugars in the gut. These newly characterised enzymes may help us understand the different glycans that humans produce, which can be indicative of disease. “These glycans, and others like them, are receptors for various pathogens and their toxins, such as Shiga toxin. If we can modify them, we may be able to influence disease severity. “We know that AM is a hugely important microbe. Its levels can be a strong indicator of overall health, with lower levels being linked to inflammatory diseases and diabetes. AM is also highly sensitive to dietary fibre intake.” Previous research has shown that AM proteins and membrane extracts have beneficial effects on metabolism and immune regulation. This latest study enhances understanding of how AM interacts with its human host and may open new avenues for microbiome-based therapies.

Imagine a future where the birth of a child could transcend the boundaries of natural biology, offering options beyond what nature dictates. This isn’t the plot of a new science fiction film; it’s a reality that could soon be upon us through the advancements in a groundbreaking technology known as in-vitro gametogenesis (IVG). This innovative approach has the potential to redefine the concepts of fertility and parental choice, promising profound changes in how we conceive new life. IVG stands at the intersection of genetic technology and reproductive health, posing intriguing questions about the future of human reproduction. Could we really design our offspring? What does it mean for a child to be born with specified traits chosen from a catalog of genetic options? As we venture into this uncharted territory, the possibilities—and ethical challenges—seem limitless. Understanding In-Vitro Gametogenesis (IVG) In-vitro gametogenesis, or IVG, represents a significant leap in reproductive technology, standing on the cusp of what many would consider impossible. At its core, IVG involves creating viable human sperm and eggs from pluripotent stem cells—cells that have the potential to develop into any type of cell in the body. This process begins by reprogramming adult cells, such as those from skin or blood, into induced pluripotent stem cells (iPSCs). These iPSCs are then stimulated through a series of biological processes to become gametes, effectively mimicking the natural gametes produced in human ovaries and testes. The science behind IVG is not just about mimicking nature, but enhancing it. Initially explored as a way to help individuals struggling with infertility, IVG’s potential extends far beyond. It opens the door for individuals regardless of age, fertility status, or gender identity to have biological children. This includes same-sex couples who could have children genetically related to both parents without the need for donor eggs or sperm. The development of this technology has been rapid, with researchers having already demonstrated the feasibility of producing mouse offspring using IVG. The step to human application involves ensuring the process is safe and effective, which remains a complex and ongoing challenge. Researchers must confirm that lab-created gametes can carry genetic information accurately and without introducing mutations that could lead to health issues down the line. As we stand on the brink of applying this technology to human reproduction, the scientific community continues to tread carefully, aware of the profound implications IVG holds. It’s not merely a new fertility treatment but a tool that could fundamentally change our approach to procreation, offering unprecedented control over the genetic makeup of future generations. Potential Benefits of In-Vitro Gametogenesis (IVG) The advent of in-vitro gametogenesis (IVG) could usher in a new era of reproductive possibilities, bringing significant benefits to various groups within society. Here are some of the key potential advantages of this emerging technology: Expanded Options for Infertility Treatment: IVG could be a game-changer for those unable to conceive naturally. By generating gametes from a person’s own cells, IVG offers a potential solution for individuals facing infertility due to age, medical treatments, or congenital conditions. This technology could provide them the chance to have genetically related children, which is not possible with current assisted reproductive technologies that rely on donor sperm or eggs. Opportunities for Same-Sex Couples: IVG holds particular promise for same-sex couples who wish to have children. Currently, such couples may rely on donor gametes, meaning only one partner can be biologically related to the child. IVG could potentially allow both partners to contribute genetically, deepening the familial bond and equality in parenting. Reduction of Genetic Disorders: One of the most compelling medical potentials of IVG is its ability to help eradicate genetic diseases. By using IVG in conjunction with genetic screening technologies, parents could avoid passing on inherited conditions by selecting embryos free from specific disorders. This proactive approach could significantly reduce the incidence of genetic diseases in future generations. Freedom from Biological Constraints: IVG could democratize reproduction by removing some biological constraints. Age, single status, or health issues that typically impact fertility could become less of a barrier, broadening the scope of who can have children and when. New Research Avenues: Beyond its direct applications in fertility treatments, IVG could revolutionize research in genetics, embryology, and reproductive biology. By providing an abundant source of human gametes, researchers could undertake studies that were previously unimaginable due to ethical and material limitations, potentially leading to breakthroughs in understanding human development and diseases. Regulatory and Legal Landscape of In-Vitro Gametogenesis (IVG) As in-vitro gametogenesis (IVG) edges closer to becoming a practical reality, the regulatory and legal framework surrounding this technology is under intense scrutiny. The potential of IVG to alter the fundamentals of human reproduction necessitates a comprehensive and forward-thinking legal approach to address the myriad ethical, societal, and scientific challenges it presents. Current Regulatory Status: At present, IVG is primarily regulated within the broader framework of assisted reproductive technologies (ARTs), which vary significantly across countries. In many regions, the use of ARTs is closely monitored, with specific regulations governing the use of human embryos, genetic screening, and the rights to privacy and consent. However, IVG introduces complexities that extend beyond the current scope of most ART regulations, such as the creation of gametes from induced pluripotent stem cells, which necessitates new regulatory considerations. Need for New Regulations: The unique aspects of IVG—such as the potential to create a child from the cells of a single individual, or from multiple individuals beyond traditional two-parent models—require specific regulations that are not currently covered under existing laws. These new rules will need to address not only the technical and safety aspects of the technology but also ethical concerns such as genetic modification, the prevention of genetic inequality, and the potential commercialization of human life. International Perspectives and Harmonization: There is also a significant need for international cooperation and harmonization of regulations. IVG could have global implications, and the movement of genetic materials and IVG technologies across borders could pose significant regulatory challenges. Aninternational consensus on the ethical use of IVG would help prevent a patchwork of regulations that could lead to “reproductive … Read more

What if the final moments of life were not marked by silence but by a surge of unseen activity? Imagine a symphony reaching its crescendo—not fading into nothingness, but intensifying in a final burst of energy. This is what scientists have observed in the human brain at the moment of death: a sudden spike in high-frequency brain waves, particularly gamma waves, which are linked to memory, awareness, and consciousness itself. For centuries, death has been seen as an abrupt ending—the moment when the heart stops, and the body ceases to function. But recent research challenges this notion, revealing that the brain does not shut down instantly. Instead, it continues working for seconds, even minutes, after the heart has stopped beating. In some cases, traces of brain activity have been detected for hours. This phenomenon raises profound questions: What is the brain doing in those final moments? Could this be the scientific explanation for near-death experiences, or is it something even more mysterious? The Final Surge: What the Science Reveals In the seconds before and after death, the brain does something unexpected—it surges with activity. A groundbreaking study recorded this phenomenon in patients at the moment their hearts stopped beating. Researchers observed a sudden burst of gamma waves, the fastest brain waves associated with higher cognitive functions. These waves are typically linked to memory recall, attention, and even conscious awareness. The findings suggest that rather than shutting down immediately, the brain experiences a final moment of intense neurological activity, almost as if it is making sense of its last experiences. Gamma waves are often linked to deep cognitive processes—the kind involved in retrieving memories, problem-solving, and heightened states of perception. Some scientists believe that in these final moments, the brain could be replaying significant life events, much like the “life review” commonly reported in near-death experiences. This could mean that the brain, even as it loses its connection to the physical body, is still processing, still aware in some form. The idea challenges long-held beliefs about the moment of death, suggesting that consciousness may persist for longer than we once thought. What’s particularly striking is that this neural activity doesn’t simply taper off after the heart stops; instead, it appears to peak right at the threshold of death. This raises fascinating questions: Is the brain orchestrating a final moment of awareness? Could consciousness persist even after the body has begun to shut down? While the answers remain elusive, the data suggests that the transition from life to death is far more complex and dynamic than previously believed. Rather than an abrupt end, death may be a process—one that the brain navigates with its own mysterious rhythm. The Brain’s Lingering Activity: How Long Does It Last? For decades, medical science has defined death as the moment the heart stops beating, cutting off oxygen and blood flow to the brain. But recent research is challenging this definition, revealing that brain activity can persist well beyond cardiac arrest. In some cases, electrical activity in the brain continues for seconds, even minutes, after the heart has stopped. More surprisingly, studies have documented lingering brain function for hours in certain circumstances, particularly in patients in comas or on life support. One study examined individuals who were declared clinically dead yet still exhibited bursts of brain activity. In these cases, specific neural patterns resembling those seen in conscious states remained detectable, even after the body had ceased functioning. This suggests that the brain does not shut down instantaneously but instead follows a gradual process, one that is not yet fully understood. Some researchers believe that this extended activity may play a role in the final processing of awareness,while others speculate that it could provide insight into near-death experiences reported by individuals who have been resuscitated.This lingering brain function raises profound questions about the boundary between life and death. If brain waves persist even after the heart has stopped, could consciousness, in some form, still be present during these moments? And if so, what does that mean for our understanding of dying? These discoveries challenge long-standing medical assumptions, hinting that the process of death may be less of an immediate event and more of a transition—one where the brain, in its own way, continues working even as the body ceases to function. The Connection Between Brain Activity and Consciousness The persistence of brain activity after death raises a question that has puzzled scientists and philosophers for centuries: Is consciousness tied solely to the physical brain, or does it extend beyond it? The surge of gamma waves observed in the dying brain is particularly intriguing because these waves are linked to higher-order thinking, self-awareness, and even states of deep meditation. If the brain remains active after the heart stops, does that mean a form of awareness lingers in those final moments? Some researchers suggest that these post-mortem neural bursts could be the brain’s way of processing the experience of dying. The concept of a “life review,” where individuals see flashes of their past, aligns with the function of gamma waves, which are involved in memory retrieval and heightened perception. Survivors of near-death experiences often describe a sense of clarity, a feeling of moving through past events in rapid succession, or even an awareness of being outside their own body. Could this scientific evidence provide a neurological explanation for such reports? Beyond the medical implications, these findings intersect with spiritual and philosophical views of consciousness. Many traditions have long suggested that awareness does not simply vanish at the moment of death but instead undergoes a transition. If brain activity persists after the heart stops, could it be a bridge between the physical and the unknown? While science may not yet have definitive answers, the discovery that the brain does not immediately cease functioning after death forces us to rethink what it truly means to be conscious—and whether the essence of who we are lingers even after the body has let go. The Threshold Between Life and Death: A New Perspective These discoveries challenge the long-standing notion … Read more

Thousands of women will participate in a study to see if AI could be used for early breast cancer detection. Around 700,000 women in the UK will take part in the AI breast cancer trial, according to the DHSC. Thirty testing sites will be involved in the study, each fitted with groundbreaking AI digital screening technology. Any woman who has already booked a routine breast cancer screening with NHS will be invited to participate in the study. The AI Breast Cancer Study Credit: Pexels The AI system will work together with radiologists to analyze changes in breast tissue that may indicate the early development of cancer. It will then subsequently refer them for further examination if necessary. If this technology works, it could potentially free up hundreds of specialist practitioners and reduce waiting list times. This new AI breast cancer system is called EDITH (Early Detection using Information Technology in Health). The NIHR has so far provided the study with £11 million in government funding. It’s just one aspect of the current effort to change cancer care in the UK. There, scientists are currently focusing on the exciting potential of using innovative technologies to address one of the nation’s leading killers× The Importance of AI Breast Cancer Research Credit: Pexels The most common type of cancer in women is breast cancer. According to WHO, 2.3 million women were diagnosed with breast cancer in 2022 alone, and there were 670,000 deaths worldwide. At the moment, the National Health Service screens around 2.1 million women for breast cancer every year. This has helped prevent around 1,300 deaths annually – a number that would rise significantly if women were diagnosed earlier. An independent investigation of the NHS revealed that survival rates in the UK were worse than in several similar nations regarding certain cancers. Read More: Woman with Stage 4 Cancer Shares 3 Overlooked Symptoms She Ignored Already Showing Promise Credit: Pexels This is not the first time that AI technology is being explored for cancer diagnosis. In fact, it has outperformed doctors in accurate diagnosis on many occasions. For example, a system called MIA was employed to analyze over 10,000 mammograms in an NHS study. MIA managed to flag every case and even identified 11 cancers missed by the doctors. According to the president of the Royal College of Radiologists, Dr. Katherin Halliday, “These results are encouraging and help to highlight the exciting potential AI presents for diagnostics.” She went on to say that there is no doubt that clinical radiologists are indispensable. However, she feels that a clinical radiologist who uses the insights provided by proven AI technologies will become an enormous asset in cancer patient care. Another Norwegian study found that breast cancer risk could be predicted up to six years before a diagnosis using AI screening technologies. Other AI Medical Applications Credit: Pexels AI assists doctors in a number of medical fields, in addition to cancer detection. It can help detect diabetic eye disease in its early stages thus preventing blindness. In general, AI enables doctors to make better decisions and detect illnesses quickly. Mental health professionals employ AI chatbots to help clients deal with their feelings of depression and anxiety. AI also improves scans such as MRIs and CTs, increasing the accuracy of disease identification. These advances demonstrate how artificial intelligence is transforming healthcare and improving outcomes for patients. The Bottom Line on AI Breast Cancer Detection Credit: Pexels Many people think of AI as something that just rewords other people’s ideas and creates funny images. However, AI has been effectively employed in a range of different applications, from military to medical. AI breast cancer technology can potentially revolutionize the way we currently detect and treat this disease. The future of medicine is constantly evolving and AI is playing an important role in shaping it.

Finding the right partner isn’t always easy. Some people crave adventure, while others want deep emotional connections. Astrology offers insight into personality traits, strengths, and challenges in relationships. Some zodiac signs bring excitement and passion, while others create stability and loyalty. If you’ve ever wondered which zodiac signs make the best girlfriends or wives, this ranking breaks it down from the most unpredictable to the most devoted. 12. Gemini – Fun but Unpredictable Source: Pexels A Gemini woman thrives on variety and intellectual stimulation. She’s adaptable, witty, and enjoys engaging in diverse conversations. Her dual nature can make her seem inconsistent, leading to unpredictability in relationships. Her love language often includes words of affirmation, as she values meaningful communication. To keep her engaged, a partner should embrace spontaneity and provide mental stimulation. However, her restlessness can sometimes lead to a lack of commitment, making long-term relationships challenging. Understanding her need for freedom and variety is key to maintaining a harmonious relationship. If you can match her intellectual curiosity and keep up with her dynamic lifestyle, she can be an exhilarating partner. 11. Aries – Passionate but Impatient Source: Pexels An Aries woman approaches love with enthusiasm and vigor. She’s adventurous, confident, and enjoys taking the lead in relationships. Her impatience can lead to frustration if things don’t progress quickly. Her love language often involves acts of service and physical touch, reflecting her desire for action and closeness. A partner who matches her energy and appreciates her independence will find a loyal companion in her. However, her assertiveness can sometimes come across as domineering, which may intimidate more reserved partners. She thrives in relationships that offer excitement and new challenges, as routine can quickly bore her. If you can keep up with her pace and respect her need for autonomy, she will be a passionate and devoted partner.​ 10. Aquarius – Independent but Detached An Aquarius woman values her independence and cherishes freedom in a relationship. She’s innovative, intellectual, and enjoys deep, philosophical discussions. She can appear detached, making emotional intimacy challenging. Her love language leans towards quality time spent exploring new ideas together. A partner who respects her need for space and engages her intellectually will find a unique and stimulating companion. However, her aloofness can sometimes be mistaken for disinterest, which may frustrate more emotionally expressive partners. She thrives in relationships that allow personal growth and mutual respect for individuality. If you appreciate a partner who challenges conventional norms and encourages intellectual exploration, she will be an inspiring companion. 9. Sagittarius – Adventurous but Restless Source: Pexels A Sagittarius woman embodies a free spirit, constantly seeking new experiences and knowledge. She’s optimistic, open-minded, and loves exploring the world. Her restlessness can make commitment challenging. Her love language includes shared adventures and intellectual conversations, reflecting her desire for growth. A partner who shares her zest for life and supports her need for freedom will enjoy an exhilarating relationship. However, her fear of being tied down can lead to a reluctance to settle, which may be challenging for partners seeking stability. She thrives in relationships that offer both companionship and the freedom to explore independently. If you can embrace her adventurous spirit and avoid imposing limitations, she will be a joyous and inspiring partner. 8. Capricorn – Loyal but Reserved Source: Pexels A Capricorn woman approaches relationships with seriousness and dedication. She’s ambitious, practical, and values stability. Her reserved nature can make emotional expression difficult. Her love language often involves acts of service and providing security, showcasing her commitment. A partner who appreciates her reliability and supports her goals will find a steadfast and supportive companion. However, her focus on work and long-term planning can sometimes make her seem distant or unapproachable. She thrives in relationships that offer mutual respect and shared ambitions. If you can understand her need for structure and patience in expressing emotions, she will be a loyal and dependable partner.​ 7. Virgo – Thoughtful but Critical Source: Pexels A Virgo woman is attentive and deeply caring, often anticipating her partner’s needs. She’s detail-oriented, intelligent, and values order. Her perfectionist tendencies can lead to critical behavior. Her love language includes acts of service and practical support, reflecting her nurturing nature. A partner who understands her intentions and values her efforts will find a devoted and meticulous companion. However, her desire for perfection can sometimes lead to overthinking and unnecessary worry. She thrives in relationships that offer stability and clear communication. If you can appreciate her meticulous nature and provide reassurance, she will be a caring and supportive partner.​ 6. Leo – Confident but High-Maintenance Source: Pexels A Leo woman radiates warmth and charisma, drawing others to her vibrant personality. She’s generous, passionate, and loves being in the spotlight. This zodiac sign requires constant admiration and attention. Her love language often involves words of affirmation and grand gestures, showcasing her need for appreciation. A partner who showers her with praise and shares her enthusiasm will enjoy a dynamic and loving relationship. However, her need for attention can sometimes come across as self-centeredness, which may be challenging for more introverted partners. She thrives in relationships that celebrate mutual achievements and public displays of affection. If you can match her energy and appreciate her flamboyant nature, she will be a loyal and exhilarating partner.​ Read More: 15+ Incredible Before and After Photos of Women Embracing Motherhood 5. Scorpio – Intense but Loyal Source: Pexels A Scorpio woman experiences emotions deeply and seeks profound connections. She’s passionate, intuitive, and values honesty. However, her intensity can be overwhelming, and she may struggle with jealousy. Her love language includes physical touch and deep emotional bonding, reflecting her desire for intimacy. A partner who earns her trust and matches her depth will find a fiercely loyal and transformative companion. She expects complete honesty and emotional transparency in return for her devotion. If she senses deception or emotional distance, she may withdraw and become guarded. However, when she feels truly secure, she creates a love so deep and unshakable that … Read more