Science and Technology

Modern AI systems are no longer constrained primarily by raw compute. Training and inference for deep learning models involve moving massive volumes of data between processors and memory. As model sizes scale from millions to hundreds of billions of parameters, the memory wall—the gap between processor speed and memory throughput—becomes the dominant performance bottleneck.Graphics processing units and AI accelerators can execute trillions of operations per second, but they stall if data cannot be delivered at the same pace. This is where memory innovations such as High Bandwidth Memory (HBM) become critical.What makes HBM fundamentally differentHBM is a form of stacked…

Gene therapy seeks to address illness by introducing, modifying, or controlling genetic material inside a patient’s cells, yet its success often hinges less on the sequences themselves and more on how accurately, securely, and effectively those instructions are delivered to the intended cells; while early approaches faced immune responses, poor targeting, and brief therapeutic effects, emerging delivery technologies are reshaping the field by boosting precision, stability, and safety along with widening the spectrum of diseases that can be treated.Cutting-edge viral vector platformsViral vectors continue to serve as key delivery systems since viruses inherently penetrate cells, and current progress aims to…

Artificial intelligence workloads are transforming data centers into extremely dense computing environments. Training large language models, running real-time inference, and supporting accelerated analytics rely heavily on GPUs, TPUs, and custom AI accelerators that consume far more power per rack than traditional servers. While a conventional enterprise rack once averaged 5 to 10 kilowatts, modern AI racks can exceed 40 kilowatts, with some hyperscale deployments targeting 80 to 120 kilowatts per rack.This surge in power density directly translates into heat. Traditional air cooling systems, which depend on large volumes of chilled air, struggle to remove heat efficiently at these levels. As…

Artificial intelligence systems, especially large language models, can generate outputs that sound confident but are factually incorrect or unsupported. These errors are commonly called hallucinations. They arise from probabilistic text generation, incomplete training data, ambiguous prompts, and the absence of real-world grounding. Improving AI reliability focuses on reducing these hallucinations while preserving creativity, fluency, and usefulness.Superior and Meticulously Curated Training DataImproving the training data for AI systems stands as one of the most influential methods, since models absorb patterns from extensive datasets, and any errors, inconsistencies, or obsolete details can immediately undermine the quality of their output.Data filtering and deduplication:…

Retrieval-augmented generation, commonly known as RAG, merges large language models with enterprise information sources to deliver answers anchored in reliable data. Rather than depending only on a model’s internal training, a RAG system pulls in pertinent documents, excerpts, or records at the moment of the query and incorporates them as contextual input for the response. Organizations are increasingly using this method to ensure that knowledge-related tasks become more precise, verifiable, and consistent with internal guidelines.Why enterprises are increasingly embracing RAGEnterprises face a recurring tension: employees need fast, natural-language answers, but leadership demands reliability and traceability. RAG addresses this tension by…