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Anuradha Godavarty, Ph.D., has joined the Virginia Commonwealth University (VCU) College of Engineering, bringing more than two decades of research leadership in optical imaging, medical device innovation and interdisciplinary training to the Department of Biomedical Engineering. “We are thrilled to welcome Dr. Godavarty to our department,” said Rebecca Heise, Ph.D., Inez Caudill, Jr. Distinguished Professor and chair of the Department of Biomedical Engineering. “She is an outstanding scholar and teacher who will expand our collaborations with VCU Health in many applications of optical imaging. Our students and faculty alike will benefit from her experience and mentorship.” Godavarty comes to VCU from Florida International University (FIU), where she served as director of the Optical Imaging Laboratory at FIU. Her work centered on designing and translating near‑infrared optical imaging technologies for clinical use, with applications ranging from breast cancer detection to functional brain mapping to wound assessment. Godavarty has a national reputation for developing portable, low‑cost imaging systems that improve access to care, including hand-held and smartphone-based near‑infrared imaging devices. Her research portfolio includes funding from the National Institutes of Health (NIH), National Science Foundation, Florida Department of Health and American Cancer Society, among others. Godavarty is also a fellow of the American Institute for Medical and Biological Engineering, a senior member of the International Society of Optics and Photonics and the National Academy of Inventors At VCU, Godavarty will expand her research program in optical imaging technologies while collaborating with clinicians, engineers and industry partners across the university and region. Her long‑term goals include advancing bedside imaging tools for wound care, cardiovascular applications and plastic surgery; strengthening global research partnerships; and training the next generation of optical imaging experts. “Virginia Commonwealth University’s engineering and health sciences ecosystem is an ideal place to grow translational research,” Godavarty said. “I look forward to building new collaborations, developing technologies that can make a meaningful difference in patient care and translating these innovations for real-world use by medical professionals.” Godavarty has played a major role in undergraduate education, serving as the undergraduate program director for biomedical engineering at FIU from 2016 to 2022 and leading the department through a successful Accreditation Board for Engineering and Technology (ABET) cycle. She organized FIU’s Annual Diabetes Awareness Day for four consecutive years and regularly engaged K‑12 students through hands-on demonstrations. Throughout her career, Godavarty has been deeply committed to mentoring. In addition to supervising doctoral, master’s and undergraduate students at FIU, she also advised high school students through outreach initiatives and supported several postdoctoral researchers. Her students have earned multiple awards, including NIH and Department of Defense fellowships, national postdoctoral awards and multiple university‑level honors.
Ape Ancestors and Neanderthals Likely Kissed, New Analysis Finds
Kissing occurs in a variety of animals but presents an evolutionary puzzle: it appears to carry high risks, such as disease transmission, while offering no obvious reproductive or survival advantage. Despite kissing carrying cultural and emotional significance in many human societies, up to now researchers have paid little attention to its evolutionary history. In the new study, “A comparative approach to the evolution of kissing,” published this week in the journal Evolution and Human Behavior, the researchers carried out the first attempt to reconstruct the evolutionary history of kissing using a cross-species approach based on the primate family tree. The results indicate that kissing is an ancient trait in the large apes, evolving in the ancestor to that group 21.5 – 16.9 million years ago. Kissing was retained over the course of evolution and is still present in most of the large apes. The team also found that our extinct human relatives, Neanderthals, were likely to have engaged in kissing too. This finding, together with previous studies showing that humans and Neanderthals shared oral microbes (via saliva transfer) and genetic material (via interbreeding), strongly suggests that humans and Neanderthals kissed one another. “While kissing may seem like an ordinary or universal behavior, it is only documented in 46% of human cultures,” said Catherine Talbot, co-author and assistant professor in the College of Psychology at Florida Tech. “The social norms and context vary widely across societies, raising the question of whether kissing is an evolved behavior or cultural invention. This is the first step in addressing that question.” Matilda Brindle, lead author and evolutionary biologist at Oxford’s Department of Biology, said: “This is the first time anyone has taken a broad evolutionary lens to examine kissing. Our findings add to a growing body of work highlighting the remarkable diversity of sexual behaviors exhibited by our primate cousins.” To run the analyses, the team first defined what constitutes a kiss. This was challenging because many mouth-to-mouth behaviours look like kissing. Since the researchers were exploring kissing across different species, the definition also needed to be applicable to a wide range of animals. They therefore defined kissing as non-aggressive, mouth-to-mouth contact that did not involve food transfer. Having established this definition, the researchers collected data from the literature on which modern primate species have been observed kissing, focusing on the group of monkeys and apes that evolved in Africa, Europe and Asia. This included chimpanzees, bonobos, and orangutans, all of which have been observed kissing. They then ran a phylogenetic analysis, treating kissing as a ‘trait’ and mapping this to the family tree of primates. They used a statistical approach (called Bayesian modelling) to simulate different evolution scenarios along the branches of the tree, to estimate the probability that different ancestors also engaged in kissing. The model was run 10 million times to give robust statistical estimates. Stuart West, co-author and professor of evolutionary biology at Oxford, said, “By integrating evolutionary biology with behavioral data, we’re able to make informed inferences about traits that don’t fossilise – like kissing. This lets us study social behaviour in both modern and extinct species.” While the researchers caution that existing data are limited – particularly outside the large apes – the study offers a framework for future work and provides a way for primatologists to record kissing behaviors in nonhuman animals using a consistent definition.
When it comes to transforming how organisations produce, consume, and reuse resources, Dr Luciano Batista, professor of operations management at Aston University, is a global pioneer. His research sits at the crossroads of innovation, digital transformation, and sustainability, tackling one of humanity’s most pressing challenges: our overconsumption of the planet’s resources. Reimagining the economy around renewal Dr Batista’s work focuses on circular supply chains —a model he helped establish at a time when 'closed-loop' systems dominated sustainability thinking. His early research laid the foundation for how businesses could move beyond recycling and linear take-make-dispose models, instead designing systems that reuse, restore, and regenerate. View his profile here From theoretical frameworks to real-world applications, his studies—such as comparative analyses of circular systems implemented by Tetra Pak in China and Brazil—demonstrate the measurable economic and environmental benefits of circularity in action. His 2022 Emerald Literati Award-winning paper introduced a methodology for mapping sustainable alternatives in food supply chains, earning international recognition for its real-world impact. A global voice for industrial symbiosis and circular innovation The influence of Dr Batista’s work reaches far beyond academia. He has advised the European Commission’s Circular Cities and Regions Initiative (CCRI) and contributed insights to policymakers through the UK All-Party Parliamentary Manufacturing Group. His expertise continues to inform national and regional strategies for sustainable production and industrial symbiosis —where one company’s waste becomes another’s resource. Today, he extends that impact globally as a visiting professor at the Massachusetts Institute of Technology (MIT), conducting research at the MIT Center for Transportation & Logistics on circular supply chain innovations, supported by Aston University’s study-leave programme. He also mentors future leaders in sustainability as part of Cambridge University’s Institute for Sustainability Leadership (CISL). Driving the next wave of sustainable transformation Looking ahead, Dr Batista is spearheading collaborations through Aston’s Centre for Circular Economy & Advanced Sustainability (CEAS), working with the Energy & Bioproducts Research Institute (EBRI) and West Midlands Combined Authority (WMCA) on projects developing biochar-based clean energy systems for urban districts. He is also advancing the social dimension of the circular economy—ensuring that the move toward sustainable production is inclusive and equitable. His Symposium on the Socially Inclusive Circular Economy, held at the 2025 Academy of Management Conference, has sparked new international research partnerships with Monash University (Australia) and the Vienna University of Economics and Business. A vision for a regenerative future At the heart of Dr Batista’s work is a simple but urgent truth: humanity is consuming resources at a rate our planet cannot sustain. Through his research and global collaborations, he is helping organisations, policymakers, and communities move toward a future where growth and sustainability coexist. “The transition to a circular economy is not optional—it is essential,” says Dr Batista. “Our goal must be to redesign systems that allow people, businesses, and ecosystems to thrive together.”
How mitochondria shape brain health from childhood to old age
From the first spark of neural development to the challenges of ageing, Dr Lissette Sánchez Aranguren is uncovering how the cell’s powerhouses — mitochondria — hold the key to a healthy brain across the human lifespan. Her pioneering research at Aston University explores how these microscopic energy generators safeguard the brain’s communication network and how their dysfunction may underlie conditions such as dementia, stroke, and neurodevelopmental disorders. Mapping the brain’s energy defence system Dr Sánchez Aranguren’s work focuses on the partnership between brain cells and the blood vessels that nourish them — a relationship maintained by the blood–brain barrier. When mitochondria fail, that protective interface can weaken, allowing harmful molecules to penetrate and trigger inflammation or cell loss. Her team’s studies show that mitochondrial malfunction disrupts the dialogue between neurons and vascular cells, an imbalance seen both in the developing and ageing brain. To counter this, she and her collaborators have engineered a mitochondria-targeted liposome, a nanoscale “bubble” that delivers restorative molecules directly where they are needed most. By re-balancing cellular energy and communication, this innovation could one day reduce brain injury or slow neurodegenerative decline. From heart cells to the human mind Originally trained in cardiovascular science, Dr Sánchez Aranguren became fascinated by how mitochondria regulate energy and stress in blood-vessel cells — insights that ultimately led her toward neuroscience. View her profile here “Mitochondria do much more than produce energy. They send signals that determine how cells communicate and survive.” That realisation inspired her to trace mitochondrial signalling across the continuum of life — linking early brain development to later-life vulnerability. Her research now bridges traditionally separate fields of developmental biology, vascular physiology, and ageing neuroscience, helping identify shared molecular pathways that influence lifelong brain resilience. Global collaboration for a healthier brain Her work thrives on multidisciplinary and international partnerships. At Aston, she collaborates with scientists from Coventry University, Queen’s University Belfast, and the University of Lincoln, alongside research partners in the Netherlands, Italy, Malaysia, and China. Together they integrate chemistry, biology, and computational modelling to understand mitochondrial function from molecule to organism — and translate discoveries into practical therapies. Towards mitochondria-targeted brain therapies The next frontier is refining these mitochondria-targeted nanocarriers to enhance precision and efficacy in preclinical models, while exploring how mitochondrial signals shape the brain’s vascular and neural architecture from infancy through adulthood. Dr Sánchez Aranguren envisions a future where protecting mitochondrial health becomes central to preventing brain disease, shifting medicine from managing symptoms to preserving the brain’s natural defence and repair systems. “If we can protect the cell’s own energy engines,” she says, “we can give the brain its best chance to stay healthy for life.”
LSU Launches Louisiana’s Most Advanced Microscope at Research Core Facility
LSU’s Advanced Microscopy and Analytical Core (AMAC) facility gives Louisiana researchers access to 16 state-of-the-art instruments, including a new Spectra 300 Scanning Transmission Electron Microscope (S/TEM) for atomic-scale imaging and analysis. The new microscope—the most advanced in Louisiana—was installed with $10 million in support from the U.S. Army. Standing almost 13 feet tall on a platform isolated from vibration, the S/TEM required major renovations, including a raised ceiling, acoustic wall panels, and a magnetic field cancellation system to ensure the instrument’s stability and performance. The microscope offers magnification up to 10 million times, powerful enough to enlarge a single grain of Mississippi River silt to the size of Tiger Stadium. “This is a transformational moment for LSU and for the future of research in Louisiana,” Interim LSU President Matt Lee said. “With the installation of the most advanced microscope in the state, LSU is once again demonstrating how we’re delivering on our promises—leading in research, innovation, and service to the state and nation.” The launch of the AMAC and S/TEM demonstrates LSU’s increased investment in providing its faculty and partners with the best possible equipment for research and discovery, including for national defense, energy, and health. “Winning in research is no different than winning in athletics—the best facilities attract the best talent, and you need the best of both to win,” LSU Vice President of Research and Economic Development Robert Twilley said. “Today’s launch is about a state-of-the-art microscope but also the launch of the AMAC as our first research core facility at LSU—the first of more to come to attract, train, and supply the best research talent for Louisiana and build research teams that win.” Using a finely focused electron beam and techniques such as energy dispersive X-ray spectroscopy (EDS) and electron energy loss spectroscopy (EELS), the S/TEM can reveal both structure and chemistry at atomic resolution. These capabilities drive advances in materials science—improving semiconductors, solar cells, batteries, catalysts, coatings, and alloys—while supporting biomedical research by mapping drug delivery, uncovering the structures of viruses and bacteria, and improving medical implant design. LSU’s AMAC research core facility was recently rebranded, changing its name from the Shared Instruments Facility (SIF). Learn more about how AMAC instruments help unlock millions in federal research funding to Louisiana and deliver solutions.
LSU Veterinary Teams Recall Courage, Loss, and Lasting Change from Hurricane Katrina Animal Rescues
From that tragedy came transformative change, with new animal evacuation protocols and policies, including the creation of the federal Pet Evacuation and Transportation Standards (PETS) Act, which requires state and local disaster plans to include provisions for pets and service animals. LSU School of Veterinary Medicine played a pivotal role in this evolution. In the days and months after Katrina, LSU Vet Med faculty, staff, and students worked alongside state officials, military units, and volunteers from across the nation to rescue, treat, and shelter thousands of animals. Two decades later, Katrina’s scars remain, but so does the resilience of the people and animals who lived through it. Their stories serve as a reminder that in even the darkest moments, compassion can spark lasting change. Rescue in a War Zone Dr. Jenny Sones (then veterinary student): I had been working at LSU Vet Med for five years when Katrina hit. LSU Vet Med put out an ‘all hands on deck’ call to employees. All of our hospital wards were turned into an ER. We opened our homes to complete strangers who came to help. It was organized chaos. Many animals came to us looking like corpses with a heartbeat because they’d been in the flood waters so long. I worked all day at LSU Vet Med, where we saw the sickest, most injured patients, and worked at Lamar Dixon evenings and weekends. Twenty years later, the images are so vivid in my mind. I took a horse trailer on a rescue mission into New Orleans with two students and a state veterinarian escort one week after Katrina hit. The scene looked like a war zone, helicopters everywhere, buildings burning, gunshot sounds. Every area we saw was looted. The stench was awful. There were people on the overpasses who had been there for a week. We were there to rescue animals. Military, Louisiana National Guard, and police brought the animals to us where our trailer was parked on an overpass. We picked up a few strays on our way out. The animals we rescued were so scared. Some had been in the flood waters a long time and were soaking wet and foul smelling. Their skin was sloughing off and they were emaciated. Amazingly, none of the dogs, cats, or horses were aggressive—maybe because they were in shock or they were grateful. We treated them all at Lamar Dixon, washed them with Dawn dishwashing soap and applied betadine. Sick ones were transported by trailer to LSU Vet Med. They were very dark times and very good times too. We were able to get the New Orleans French Quarter mules out to Lamar Dixon. Their caretaker crew stayed with them. They hooked up the mules, still in good shape because they weren’t in the flood waters, and they gave workers short rides around the Lamar Dixon grounds. It was such rewarding work. We were exhausted but in the best way. It would have been easy to get caught up in the devastation if we didn’t focus on our purpose to help animals. You can’t fix everything, but you can fix what’s in front of you. If you can survive the devastation of Katrina, you can survive anything. From Classroom to Crisis Dr. Jenny Sones (then veterinary student): In August 2005, I was starting my second year of veterinary school at LSU. I had no idea that life was about to change so drastically. School was cancelled, and electricity was out most places except at the vet school. My colleagues set up temporary housing in our study rooms and other places throughout the vet school. We then began to learn of the effects of Katrina on our veterinary species—dogs, cats, horses, and more. These precious creatures were the reason why we studied, crammed, and signed up to endure the rigors of veterinary school. It was time to close the books and help! Although we were not licensed veterinarians yet, we were keen to provide aid in any way we could. I, along with lots of my classmates, volunteered at Parker Coliseum on the LSU campus, where displaced small animals were seeking refuge, and at Lamar Dixon, which became the shelter for large animals and small animals. We spend many hours doing anything we could, cleaning litter boxes, refilling water bowls, changing bedding, administering medications, and assisting the heroic volunteer veterinarians working tirelessly to treat the injured, sick, and rescued. Lots of important lessons were learned during Katrina. Many animals were not reunited with their owners. That's when I learned the value of microchipping to permanently identify animals, gained an appreciation for animal search and rescue, and the value of quick response. (Sones is now CSU Equine Reproduction Laboratory reproduction specialist.) Mapping Rescues by Hand Ashley Stokes (former faculty member): It was unlike anything I’ve ever experienced. I was researching and teaching at LSU Vet Med in 2005. LSU Vet Med stepped up in so many ways. We started receiving calls from citizens and local authorities at the vet school almost immediately after the storm. They needed help with resources—animal rescue, food, and water. They had to leave New Orleans quickly. I particularly remember a call from someone from south of Belle Chase, La., who had left horses, cattle, and two dogs in the house and needed help. It was surreal to see the devastation, houses floating, there in the Delta. We were making real-time decisions to help their animals. They’d lost so much, and for some, their animals were all they had left. We put a paper map of Louisiana on the wall and put pins in the locations that called for assistance. We covered all of New Orleans and surrounding areas, including the north shore and extending west to Baton Rouge. We took the callers’ information and sent teams of staff, students, and volunteers to different locations with donated trailers, hay, water, and other resources for rescue. We continued rescues for months after the storm. We were there for people for the long haul. The whole experience was transformational in my life. What I learned from Katrina became part of my own career and what I continue to do. There were beautiful moments, especially seeing how resilient and helpful people could be. I saw every day how the community came together and were absolute bright lights. Positive came from tragedy. (Stokes is now dean of UC Davis College of Agricultural & Environmental Sciences.) The Boxer on the Third Floor Dr. Neil Henderson (alumnus): When Katrina hit, the Louisiana Veterinary Medical Association sent out a request for help from veterinarians. I got to the Lamar Dixon Center on Day 5 after Katrina hit. St. Bernard Parish was where I spent most of my time helping. It was literally destroyed. One day, while we were making our rounds, a man came running up to me and said that he just remembered that while the storm was coming through—he was on the third story of a building looking out of the window—he noticed a dog swimming around frantically with nowhere to go. He opened a window for it with the hopes that it would swim inside the building to safety. Seven or eight days later, with the temperature well into the upper 90s, the man came up to me and asked me to go into the building to see if I could find the dog. I did not have much hope but went anyway. There, on the third floor of the building, I found the dog, a boxer, alive. She was in surprisingly good shape. The man was ecstatic to see the dog and could not believe that it made it inside the building to safety. I stayed for five days helping animals, and my late father (Dr. Robert Henderson, class of 1977) came after that for five more days. (Henderson is the owner of the Pine Ridge Veterinary Center in Stonewall, La.) Article originally posted here.
The Impact of Counterfeit Goods in Global Commerce
Introduction Counterfeiting has been described as “the world’s second oldest profession.” In 2018, worldwide counterfeiting was estimated to cost the global economy between USD 1.7 trillion and USD 4.5 trillion annually, as well as resulting in more than 70 deaths and 350,000 serious injuries annually. It is estimated that more than a quarter of US consumers have purchased a counterfeit product. The counterfeiting problem is expected to be exacerbated by the unprecedented shift in tariff policy. Tariffs, designed as an import tax or duty on an imported product, are often a percentage of the price and can have different values for different products. Tariffs drive up the cost of imported brand name products but may not, or only to a lesser extent, impact the cost of counterfeit goods. In this article, we examine the extent of the global counterfeit dilemma, the role experts play in tracking and mitigating the problem, the use of anti-counterfeiting measures, and the potential impact that tariffs may have on the flow of counterfeit goods. Brand goods have always been a target of counterfeits due to their high price and associated prestige. These are often luxury goods and clothing, but can also be pharmaceuticals, cosmetics, and electronics. The brand name is an indication of quality materials, workmanship, and technology. People will pay more for the “real thing,” or decide to buy something cheaper that looks “just as good.” In many cases, “just as good” is a counterfeit of the brand name product. A tariff is an import tax or duty that is typically paid by the importer and can drive up the cost of imported brand name products. For example, a Yale study has shown that shoe prices may increase by 87% and apparel prices by 65%, due to tariffs. On the other hand, counterfeit products don’t play by the rules and can often avoid paying tariffs, such as the case of many smaller, online transactions, shipped individually. Therefore, we expect to see an increase in counterfeit products as well as a need to increase efforts to reduce the economic losses of counterfeiting. The Scale of the Counterfeit Problem In their 2025 report, the Organisation for Economic Co-operation and Development (OECD) and the European Union Intellectual Property Office (EUIPO), estimated that in 2021, “global trade in counterfeit goods was valued at approximately USD 467 billion, or 2.3% of total global imports. This absolute value represents an increase from 2019, when counterfeit trade was estimated at USD 464 billion, although its relative share decreased compared to 2019 when it accounted for 2.5% of world trade. For imports into the European Union, the value of counterfeit goods was estimated at USD 117 billion, or 4.7% of total EU imports.” In a 2020 report, the US Patent and Trademark Office (USPTO) estimated the size of the international counterfeit market as having a “range from a low of USD 200 billion in 2008 to a high of USD 509 billion in 2019.” According to the OEDC / EUIPO General Trade-Related Index of Counterfeiting for economies (GTRIC-e), China continues to be the primary source of counterfeit goods, as well as Bangladesh, Lebanon, Syrian Arab Republic, and Türkiye. Based on customs seizures in 2020-21, the most common items are clothing (21.6%), footwear (21.4%), and handbags, followed by electronics and watches. Based on the value of goods seized, watches (23%) and footwear (15%) had the highest value. However, it should be noted that items that are easier to detect and seize are likely to be overrepresented in the data. Although the share of watches declined, and electronics, toys, and games increased, it remains unclear whether this represents a long term trend or just a short term fluctuation. In general, high value products in high demand continue to be counterfeited. Data from the US Library of Congress indicates that 60% – 80% of counterfeit products are purchased by Americans. The US accounts for approximately 5% of the world’s consumers; however, it represents greater than 20% of the world’s purchasing power. Though it is still possible to find counterfeit products at local markets, a large number of counterfeit goods are obtained through online retailers and shipped directly to consumers as small parcels classified as de minimis trade. This allows for the duty-free import of products up to USD 800 in value. Counterfeit items may be knowingly or unknowingly purchased from online retailers and shipped directly to consumers, duty-free. Purchased products can be shipped via postal services, classified as de minimis trade. Approximately 79% of packages seized contained less than 10 items. Given the size and volume of the packages arriving daily, many or most will evade scrutiny by customs officials. This means of import is increasing over time. In 2017-19 it was 61% of seizures. By 2020-21, it was 79%. Economic Impact of Counterfeiting The scale of the counterfeiting problem has significant impacts on the US economy, US business interests, and US innovations in lost sales and lost jobs. Moreover, counterfeit products are often made quickly and cheaply, using materials that may be toxic. The companies producing these goods may not dispose of waste properly and may dump it into waterways, causing significant environmental consequences. Counterfeit products from electrical equipment and life jackets to batteries and smoke alarms may be made without adhering to safety standards or be properly tested. These products may fail to function when you need it and may lead to fire, electric shock, poisoning, and other accidents that can seriously injure and even kill consumers. Counterfeit cosmetics and pharmaceuticals can also lead to injuries by either including unsafe ingredients or by failing to provide the benefits of the real product. The Tariff Counterfeit Connection Tariffs may be seen as a tax on consumers and raise the price of imported products that are already the target of counterfeiters such as luxury leather products and apparel. It’s commonly understood that raising prices on genuine products can only drive up the demand for counterfeit goods. In general, consumers will have less disposable income and the brand goods they desire will cost more which is bound to increase the demand for counterfeit goods. Although recent changes removing the USD 800 tax exemption on de minimis shipments from China and Hong Kong will make it more expensive for counterfeiters to ship their goods internationally, tariffs are typically applied as a percentage of the cost of an object. This will cause the price of more expensive legitimate goods to increase even more than the cheaper counterfeit goods and likely make the counterfeit products even more attractive economically. Therefore, we expect to see an increase in counterfeit products as well as an increase in efforts to reduce the economic losses of counterfeiting. The Role of Technical Experts in Counterfeit Detection Technical experts play an important role in both the prevention and detection of counterfeits and helping to identify counterfeiting entities. Whether counterfeit money, clothing, shoes, electronics, cosmetics or pharmaceuticals, the first step in fighting counterfeits is detecting them. In some cases, the counterfeit product is obvious. A leather product may not be leather, a logo may be wrong, packaging may have a spelling mistake, or a holographic label may be missing. These products may be seized by customs. However, some counterfeit products are very difficult to detect. In the case of a counterfeit memory card with less than the stated capacity or a pharmaceutical that contains the wrong active ingredient, technical analysis may be needed to identify the parts. Technical analysis may also be used to try and identify the source of the counterfeit goods. For prevention measures, manufacturers may use radio frequency identification (RFID) or Near Field Communication (NFC) tags within their products. RFID tags are microscopic semiconductor chips attached to a metallic printed antenna. The tag itself may be flexible and easy to incorporate into packaging or into the product itself. A passive RFID requires no power and has sufficient storage to store information such as product name, stock keeping unit (SKU), place of manufacture, date of manufacture, as well as some sort of cryptographic information to attest to the authenticity of the tag. A simple scanner powers the tag using an electromagnetic field and reads the tag. If manufacturers include RFID tags in products, an X-ray to identify a product in a de minimis shipment (perhaps using artificial intelligence technology) and an RFID scanner to verify the authenticity of the product can be used to efficiently screen a large number of packages. Many products also may be marked with photo-luminescent dyes with unique properties that may be read by special scanners and allow authorities to detect legitimate products. Similarly, doped hybrid oxide particles with distinctive photo-responsive features may be printed on products. These particles, when exposed to laser light, experience a fast increase in temperature which may be quickly detected. For either of these examples, the ability to identify legitimate products, or – due to the absence of marking – track counterfeit products, allows authorities to map the flow of the counterfeit goods through the supply chain as they are manufactured, shipped, and are exported and imported to countries. For many years, electronic memory cards such as SD cards and USB sticks have been counterfeited. In many cases, the fake card will have a capacity much smaller than listed. For example, a 32GB memory card for a camera may only hold 1GB. Sometimes, these products may be identified by analyzing the packaging for discrepancies from the brand name products. In other cases, software must be used to verify the capacity and performance of each one, which is time-consuming when analyzing a large number of products. Forensic investigators, comprised of forensic accountants and forensic technologists, are heavily involved in efforts to combat this illicit trade. By analyzing financial records, supply-chain data, and transaction histories, they trace the origins and pathways of counterfeit products. Their work often involves identifying suspicious procurement patterns, shell companies, and irregular inventory flows that signal counterfeit activity. Forensic investigators often begin by mapping the counterfeit supply chain, an intricate web that often spans continents. Using data analytics, transaction tracing, and inventory audits, they identify anomalies in procurement, distribution, and sales records. These methodologies help pinpoint the origin of counterfeit goods, the intermediaries involved, and the final points of sale. By reconstructing the flow of goods and money, forensic investigators can begin to unmask activities. Cross-border partnerships are essential for tracking assets, sharing insights, and coordinating with financial regulators. Public-private partnerships further enhance the effectiveness of anti-counterfeiting efforts. Forensic investigators often serve as bridges between government agencies, brand owners, and financial institutions, facilitating the exchange of key information. These partnerships increase information-sharing, streamline investigations, and amplify the impact of enforcement actions. A promising development in this space is the World Customs Organization’s Smart Customs Project, which integrates artificial intelligence to detect and intercept counterfeit goods. Forensic investigators can leverage this initiative by analyzing AI-generated alerts and incorporating them into broader financial investigations, which allows for faster and more accurate identification of illicit networks. Jurisdictional complexity is a major hurdle in anti-counterfeiting efforts. Forensic investigators work closely with legal teams to navigate these challenges to ensure that investigations comply with local laws, and evidence is admissible and can withstand scrutiny in court, especially when dealing with offshore accounts and international money laundering schemes. Forensic investigators follow the money, tracing illicit profits through bank accounts, shell companies, and cryptocurrency transactions. Their findings not only help recover stolen assets but also support disputes by providing expert testimony that quantifies financial losses and identifies the bad actors. Conclusion Imitations of brand name products have become more convincing, harder to detect, and the sources of the counterfeit goods more difficult to identify. While counterfeiting clearly has evolved because of technological advancements, e-commerce, and the growing sophistication of bad actors, the process has now been complicated even further by the unpredictable tariff and trade policies that are affecting businesses worldwide. Consequently, companies need to take a multi-faceted approach to these new challenges introduced into the counterfeiting of products by tariffs. By engaging high-tech product authentication measures, utilizing technology-based alerts about counterfeits, and retaining the specialized skills of forensic investigators and other experts, companies will be able to navigate the risks posed by the complex and changing relationship between tariffs and counterfeit goods. To learn more about this topic and how it can impact your business or connect with James E. Malackowski simply click on his icon now to arrange an interview today. To connect with David Fraser or Matthew Brown - contact : Kristi L. Stathis, J.S. Held +1 786 833 4864 Kristi.Stathis@JSHeld.com
Managing cyber risk is no longer a technical necessity but also a strategic imperative in global business. As companies are more interconnected and reliant on artificial intelligence (AI), the Internet of Things, and the rest of the digital ecosystem, they are exposed to greater opportunities and risks. In this video, Senior Managing Director and cybersecurity expert Denis Calderone shares topics covered in the 2025 J.S. Held Global Risk Report focused on managing cyber risk in the year ahead. The global regulatory landscape is evolving rapidly in response to the increasing severity of cyber threats. Governments and regulatory bodies, including the U.S. Securities and Exchange Commission (SEC), the European Union (EU), and the U.S. Transportation Security Administration (TSA), have introduced cybersecurity mandates that require businesses to strengthen their defenses, improve incident reporting, and ensure compliance with new industry standards. The 2025 Global Risk Report by J.S. Held provides perspectives on these regulatory shifts, helping businesses navigate the complexities of cyber risk and compliance. The growing frequency and severity of cyberattacks are reshaping how businesses approach risk management. The J.S. Held 2025 Global Risk Report explores key issues facing business today, including: Business Interruption from Cyber Incidents: High-profile cases like Change Healthcare’s 2024 breach demonstrate how cyberattacks can halt operations, lead to regulatory scrutiny, and result in massive financial losses. Reputational and Legal Fallout: Cyber incidents can trigger lawsuits and damage a company’s reputation, often leading to prolonged trust recovery periods with customers and investors. Loss of Sensitive Data: Data breaches can expose critical information, including personal, financial, and proprietary data, amplifying risks of identity theft and fraud. Tightening Regulatory Landscape: New cybersecurity laws, such as the EU’s NIS2 Directive and Cyber Resilience Act, alongside the US SEC’s disclosure rules, demand stricter compliance from businesses in key sectors. Complexities in Cyber Insurance: Many companies lack clarity on whether their policies cover ransomware or meet legal and operational needs, leaving them exposed to potential financial risks. Ransomware Dilemmas and Legal Risks: Paying a ransom may violate international sanctions, creating additional legal complications for organizations already dealing with cyberattacks. Proactive Cybersecurity Enhancements: Companies implementing advanced cybersecurity measures like MFA, EDR, and immutable backup systems improve their defenses and reduce risks of disruption. AI-Powered Threat Detection: Artificial intelligence enables companies to identify fraud and cyberattacks faster by analyzing patterns and anomalies in real time, minimizing damage, and reducing costs. Increased Demand for Cyber Insurance: As companies across industries seek better coverage, insurers have opportunities to innovate new products, though exclusionary clauses are becoming more common. Business Continuity and Resilience: Organizations with strong cyber hygiene, incident response plans, and dependency mapping are better prepared for attacks and may benefit from reduced insurance premiums. Cybersecurity risk is just one of the five key areas analyzed in the J.S. Held 2025 Global Risk Report. Other topics include sustainability, supply chain, cryptocurrency and digital assets, AI and data regulations. If you have any questions or would like to further discuss the risks and opportunities outlined in the report, email GlobalRiskReport@jsheld.com. To connect with Denis Calderone simply click on his icon now. For any other media inquiries - contact : Kristi L. Stathis, J.S. Held +1 786 833 4864 Kristi.Stathis@JSHeld.com
Secretary Buttigeg makes one of his final DOT stops at CMU's Safety 21
U.S. Secretary of Transportation Pete Buttigieg visited Carnegie Mellon University in one of his final stops as Transportation Secretary. Raj Rajkumar, director of Safety21 and George Westinghouse Professor in the Department of Electrical and Computer Engineering, with Ph.D. candidates Nishad Sahu and Gregory Su, demonstrated research on the safe navigation of autonomous driving systems in designated work zones, leveraging high-definition mapping, computer perception and vehicle connectivity. “The sophistication of the safety work that’s going on goes well beyond any commercially available automated or advanced driver assistance system is really inspiring,” Buttigieg said. “We’ve got to make sure it develops the right way, we’ve got to be cautious about how it’s deployed, but you can tell a lot of thought and, of course, a lot of incredibly sophisticated research is going into that.”
University of Delaware researchers are leading a heat mapping project to address the urban heat island effect caused by climate change. Dana Veron and A.R. Siders, co-directors of the Gerard J. Mangone Climate Change Science and Policy Hub, have laid out a plan of action that aims to understand the heat distribution, particularly in vulnerable communities. According to the Natural Resources Defense Council, extreme heat is the number one cause of weather-related death in the United States, making urban heat islands a significant public health concern. In an effort to tackle this issue head on, Veron and Siders – who are also professors at UD – have been working with UD’s Center for Environmental Monitoring and Analysis (CEMA) and Delaware’s Department of Natural Resources and Environmental Control (DNREC) to map heat in Wilmington, Delaware. The 2023 WiST (Wilmington and Surrounding Townships) Heat Watch has been in the works since late 2021. The initial proposals were developed by CEMA and DNREC. UD’s Climate Hub became the coordinating entity soon after. “This was our first externally funded project that allowed the Hub to serve the role we envisioned for it, as a central point of contact and communication, a facilitator networking amongst many partners across different sectors,” said Dana Veron, High heat-absorbance in urban areas leads to increased energy consumption, emissions, and strains on energy systems. The mapping project is part of a broader trend in urban sustainability planning and cooling strategies, driven by the need to mitigate the urban heat island effect. The researchers anticipate using the data to influence future city planning, incorporating green infrastructure to reduce the urban heat island effect. The Climate Hub team plans to present the preliminary results in a virtual town hall meeting, emphasizing the importance of community engagement and collaboration in addressing climate-related challenges. The campaign demonstrates the potential for universities to lead collaborative efforts and engage students in climate research and community outreach. Dozens of other Heat Watch campaign teams have incorporated their findings into climate and heat mitigation strategies. In Virginia, Richmond officials have made heat vulnerability and urban heat islands a determining factor in their upcoming city and sustainability planning endeavors. In New Jersey, the city of Newark introduced several proposals offering equitable solutions to heat emergencies, including increased funding for cooling centers and urban green spaces. Every Heat Watch mapping campaign develops a report detailing heat distribution across the target city. Digital maps that display predictive heat-index models mindful of land coverage and topography are also publicly released. “This is the beginning of the work,” said Veron. “All the partners are anxious to get the map because what’s really exciting is what happens next.” To set up an interview with Veron or Siders, visit their profiles and click the "contact" button.
