Prem Natarajan left Amazon to become Capital One's Chief Scientist, applying deep AI research to solve real-world financial challenges at scale, from fraud detection to agentic customer service.
Capital One treats AI as a scientific discipline, not just technology to deploy.
The bank's cloud-first infrastructure enables large-scale AI research.
This article explores how AI's rapid progress in mathematics challenges traditional research, prompting mathematicians to reassess their roles. It analyzes three potential futures: AI as a tool, a collaborator, or an autonomous oracle.
AI systems have achieved gold-medal level at the International Mathematical Olympiad and autonomously produced Ph.D.-level research
Mathematicians experience existential anxiety about being replaced but actively debate their future roles
Princeton researchers are using reinforcement learning and generative AI to design radio-frequency integrated circuits (RFICs) from scratch, producing chips that outperform human designs in record time. The AI generates unconventional layouts that push performance limits, but the field needs open datasets to advance further.
RFIC design is a complex 'dark art' that relies on human intuition and years of experience.
AI using reinforcement learning and inverse design can rapidly create RFICs from scratch, achieving record performance.
Artificial intelligence, established as a distinct field at the 1956 Dartmouth Summer Research Project, has evolved over 70 years from early neural networks and expert systems to modern deep learning, large language models, and generative AI. The article reviews AI's history, strengths, risks, and IEEE's contributions to its progress and responsible use.
AI was formally founded in 1956, but its intellectual roots extend back to earlier decades.
The field has experienced cycles of hype and disappointment, known as 'AI winters,' followed by recent breakthroughs in deep learning and generative AI.
Large language models have moved from research labs into engineers' daily workflows. To help technical professionals stay ahead, IEEE offers a five-course online program that covers the engineering behind generative AI, from transformer architectures to deployment.
The LLM market is expected to grow by 33% annually through 2030, making proficiency a core requirement for technologists.
Engineers must understand transformer architecture and internal logic, not just treat LLMs as conversational robots.
By mimicking how the brain operates, neuromorphic computing can use dramatically less energy than conventional electronic AI chips. However, even the most sophisticated neuromorphic devices today are still quite simple, using only a small fraction of the number of connections found in human neurons. Now a new study suggests that using sound waves, neuromorphic devices can better mimic biological neurons and operate faster and with greater energy efficiency than their electronic counterparts.
Acoustic neuromorphic devices use phi-bits for parallel computing, mimicking synaptic plasticity
Achieved 96.7% accuracy on iris classification with 90% lower power consumption
Generative AI complicates the definition of 'use' for musical works. Companies like Sureel and SoundVerse are developing attribution systems to track training data usage and ensure musicians are compensated when their work trains AI models. This raises technical, ethical, and policy challenges.
Generative AI challenges the traditional 'pay-per-use' model for musicians, as training data is used in opaque ways.
Sureel and STIM are partnering to label media files with usage instructions and track AI training for licensing fees.
Researchers trained collaborative robots to read human emotions using vision language models, which outperformed traditional AI by incorporating context. However, while adaptive apologies were preferred, they could not repair trust lost due to task failure.
VLM scored 0.86 vs traditional AI's 0.77 in emotion recognition
31 of 40 participants preferred context-aware apologies
Isomorphic Labs, a Google DeepMind spinout, is using its novel AI system IsoDDE to discover hidden pockets on proteins for drug binding, going beyond AlphaFold. The system successfully predicted a cryptic pocket on cereblon, validating its ability to find novel drug targets.
IsoDDE goes beyond AlphaFold by predicting protein-ligand interactions, not just structure.
The system identified a cryptic pocket on cereblon, published in Nature, using only the protein sequence.
Researchers at the University of Twente have shown that by adjusting GPU clock frequencies at the per-kernel level, they can save up to 14% of the energy used in LLM training with minimal impact on speed.
Researchers applied dynamic voltage and frequency scaling (DVFS) at the per-kernel granularity on GPUs.
Achieved 14% energy savings with only 0.6% increase in training time.
Tracking glacier loss is critical for climate research, but manual analysis is slow. A new AI approach reduces mapping error from over 1 km to under 70 m using minimal extra data: one hand-labeled image, summer reference images, and an underlying rock map. Applied to all 145 glaciers in Svalbard, it generated monthly calving front positions from 2015 to 2024. The method could help automate global glacier monitoring.
AI model adapted to new glacier regions with minimal data reduces error from >1 km to <70 m.
Summer reference images and rock maps significantly boost accuracy.
At Computex 2026, Nvidia announced RTX Spark, a version of its Blackwell GB10 superchip for Windows PCs. Microsoft and multiple OEMs unveiled devices. RTX Spark combines 20 Arm CPU cores, 6,144 GPU cores, and an NPU, targeting AI, gaming, and professional work. Nvidia's software dominance and industry clout may help establish Windows on Arm, but the challenge remains to compete with x86.
Nvidia announced RTX Spark at Computex 2026, bringing the Blackwell GB10 superchip to Windows PCs.
Microsoft, Asus, Dell, Lenovo, HP, and MSI announced RTX Spark-powered devices.
Quantum computers promise to solve problems beyond supercomputers, but their operation relies heavily on classical computing. As qubit counts rise, innovations in calibration and error-correction infrastructure are critical. Companies like NVIDIA, Q-CTRL, IBM, Riverlane, and Google are developing classical hardware and software to support quantum systems.
Quantum computers depend on classical computing for calibration and error correction
Calibration involves 'bring-up' and runtime phases, often manual and time-consuming
As AI systems become more capable, we pour resources into measuring their technical performance but largely ignore their psychosocial impacts on humans. Imran Khan of the Center for Humane Technology argues this is a critical oversight, with harms already appearing. He calls for long-term studies, data transparency, and regulatory liability to ensure AI helps humans flourish.
AI performance is measured extensively, but human impacts like cognition and relationships are not systematically assessed
High-profile harms such as teen suicides and AI psychosis are already emerging, with societal risks looming
AI hardware startup Majestic Labs is developing a new AI server, Prometheus, with up to 128 terabytes of memory, over 60 times more than Nvidia's DGX B300. It uses a DRAM-centric architecture with a proprietary copper-cable memory interface and custom memory aggregation chips, delivering up to 25.6 TB/s bandwidth. The server features 12 Ignite AI processors combining ARM and RISC-V cores, and supports PyTorch, vLLM, and Triton frameworks without code modifications. Expected to ship in 2027, it claims to reduce capital expenditure and power consumption by 10 to 50 times.
Majestic Labs unveils Prometheus AI server with 128 TB memory, dwarfing Nvidia's DGX B300 by 60x.
DRAM-centric design with proprietary copper interface and memory aggregation chips for high bandwidth.
An experienced ASIC designer who moved from academia to industry shares key insights on the differences between chip design in academic and industrial settings. The article covers divergent goals, risk tolerance, verification standards, and time horizons, and emphasizes the role of silicon IP. With the ASIC market growing rapidly, understanding these differences is crucial for aspiring chip designers from academia.
Academia focuses on novelty and concept validation, while industry prioritizes reliability, repeatability, and scalability.
Industry systematically minimizes risk through conservative margins, extensive validation, and reuse of proven solutions.
South Africa holds 88% of global platinum-group metals, hosts Africa's largest data center market, and sits at the center of a US-China AI infrastructure contest. Yet its draft AI policy, withdrawn after hallucinated references, fails to leverage these advantages for favorable terms. The article examines South Africa's structural leverage, three possible AI infrastructure futures (Chinese, US, local open-weight), and the need for binding governance provisions.
South Africa's platinum metals and renewable energy give it unique AI leverage, but the draft policy lacks minimum terms for hyperscalers, data sovereignty, or tech transfer conditions.
US and Chinese tech companies (Microsoft, Huawei) compete for AI infrastructure control in South Africa, while the policy does not specify what South Africa demands in return.
This webinar presents a workflow offering end-to-end solutions for designing, training, validating and verifying, compressing, and deploying AI-based virtual sensor models to embedded processors within a single environment.
Integrate AI models into Simulink for system-level simulation and verification
Apply formal verification techniques to assert neural network behavior
Bees and other pollinating insects play vital roles in food webs and crop pollination, yet monitoring them has proven difficult. That’s why researchers have developed a radar system that could lead to a cost-effective, non-invasive way to track pollinators.
A new mmWave radar system uses micro-Doppler signatures from insect wingbeats to classify species.
Machine learning model achieves 85% accuracy at species level and 96% at family level for five pollinator species.
Researchers at the University of Waikato have developed a text-to-speech model for a dialect of te reo Māori, emphasizing data sovereignty and community ownership. Using open-source tools and minimal data, the model achieved a 6.78% word error rate and aims to provide a replicable blueprint for other minority language communities.
A Waikato team built a Māori TTS model prioritizing data sovereignty and community ownership.
The model uses open-source Piper architecture and phoneme-based approach with 7h45m of recordings.
The open-source movement is bringing AI breakthroughs to robotics, lowering barriers to entry. From the ROS framework to models from Nvidia, Hugging Face, and Alibaba, robots' ability to reason, decide, and act is becoming accessible to more people. However, tensions between commercial incentives and academic ideals present new challenges.
Open-source robotics software has evolved over decades; ROS set the infrastructure, and now open-source AI models are driving the evolution of robot 'brains'.
Companies like Nvidia, Hugging Face, and Alibaba have released open-source robotic AI tools and models, significantly lowering the entry barrier.
Wetour Robotics argues that the next frontier in Physical AI is not smarter robots but smarter interfaces that treat the human body as a first-class computing node. Their Spatial Intent Fusion platform, Orchestra, combines spatial, visual, and gestural inputs to enable low-latency, hands-free control of connected devices. The system uses edge AI and sEMG for pre-motion intent sensing, addressing real-world scenarios where traditional interfaces fail. The article discusses the architecture, trade-offs, and implications for the field.
Wetour Robotics' Spatial Intent Fusion integrates spatial position, visual context, and gestural intent for hands-free device control.
Their Orchestra platform uses edge AI (NVIDIA Jetson Orin Nano Super) and sEMG to achieve sub-100ms latency and anticipate user intent.
This presentation highlights recent efforts at the Johns Hopkins Applied Physics Laboratory to advance agentic AI for collaborative robotic teams. It begins by framing the core challenges of enabling autonomy, coordination, and adaptability across heterogeneous systems, then introduces a scalable architecture designed to support agentic behaviors in multi-robot environments. The talk concludes with key challenges encountered and practical lessons learned from ongoing research and development.
Introduction to LLM-based AI Agents
Approach to applying LLM-based AI Agents to robotic teams
Melbourne is leveraging sovereign AI compute, hyperscale data centers, and international conferences to create a research flywheel. MAVERIC supercomputer, investments by CDC and NEXTDC, and upcoming conferences position Melbourne as a global hub for AI research.
MAVERIC, Australia's largest university-based AI supercomputer, enables secure, domestic processing of sensitive medical data.
CDC and NEXTDC data center investments provide over 800 MW of sovereign digital capacity for AI workloads.
Research reveals that AI voice systems can be hijacked via imperceptible audio signals, with success rates up to 96%. The AudioHijack attack targets large audio-language models (LALMs) and can trigger malicious actions including data theft and unauthorized tool use.
AudioHijack uses imperceptible audio modifications to manipulate AI voice models with a 79-96% success rate.
The attack works on open and commercial models from Microsoft and Mistral, and can be reused regardless of user instructions.
Electronic rings wirelessly connected to an AI system are capable of translating multiple sign languages into text, a new study finds. The system uses seven rings with accelerometers to detect hand motion, achieving 88.3% and 88.5% accuracy for 100 common ASL and International Sign Language words, and can translate continuous sentences. Future work includes incorporating facial expressions and body posture, and migrating processing to smartphones.
Seven wireless rings with accelerometers capture hand motion; AI translates gestures to text.
Tested on 100 ASL and 100 International Sign Language words with ~88% accuracy.
Researchers at the University of Texas at Austin have developed a graphene tattoo that sticks directly onto leaves to monitor hydration in real time. The sensor acts as an artificial synapse, potentially enabling plant-based neural networks for forest fire and drought monitoring.
Graphene patch acts as a stick-on tattoo for leaves, measuring moisture via electric pulses without damaging the plant.
Sensor exhibits synaptic properties: adjustable conductance and short-term memory, suitable for neural network applications.
A new study in Science shows OpenAI's LLM outperforms physicians on clinical reasoning tasks, but sparks debate over reliability, evaluation standards, and the path to responsible use in healthcare.
OpenAI's o1-preview outperformed physicians in clinical reasoning tasks using real emergency room records.
Chatbots show mixed reliability: impressive diagnostic performance but also fabricated citations and flawed advice.
General-purpose LLMs are increasingly capable of transcribing historical handwriting, outperforming specialized tools like Transkribus in accuracy, speed, and cost, opening up previously inaccessible archival collections.
LLMs can now transcribe historical handwriting with character error rates below 2%, surpassing specialized software.
The technology is being used by historians, archivists, and institutions like the Federal Reserve to unlock hidden data.
As AI workloads reach gigascale levels, data centers face a physical bottleneck in power chain resilience. GPU clusters create high-frequency pulse loads that legacy systems cannot handle. Ampace and Eaton collaborate to transform energy storage from passive backup to active stabilization using semi-solid batteries and intelligent UPS systems.
AI training loads cause voltage sags and frequency instability beyond what traditional power systems can manage.
Ampace's PU Series semi-solid cells act as high-speed shock absorbers with ultra-low internal resistance.