360º Technology Scan

Layer-by-layer fabrication of living tissues and functional organs.

Automated construction of buildings using large-scale additive manufacturing.

Smart materials that change shape or function over time.

Extremely compact, long-lasting information storage in nanostructured glass.

Next-gen wireless delivering terabit speeds and native AI integration.

Robotic systems for capturing and removing space junk.

Autonomous AI agents capable of planning and executing complex tasks.

Machine learning algorithms creating novel proteins for medicine and industry.

Evaluating AI systems for bias, fairness, and performance.

Ultra-fast urban communication infrastructure using light for data transmission.

AI systems surpassing human cognitive capabilities across all domains.

Extracorporeal systems supporting embryo and fetal development.

AI systems assisting in data-driven urban governance and policy.

AI systems ensuring adherence to regulations and standards.

AI-driven systems for self-monitoring and repairing urban infrastructure.

AI sensor networks tracking environmental metrics in real time.

Computing systems integrating living biological neurons.

Sustainable design approach drawing inspiration from nature's forms and processes.

Generating wind energy through vortex-induced vibrations.

Secure, decentralized networks for industrial IoT and supply chains.

Neural interfaces for direct brain-computer communication.

Nanoscale transistors using carbon nanotubes for future miniaturization beyond silicon.

Energy-storing concrete structures for distributed urban power.

Ultra-strong linear carbon chains with exceptional conductivity.

Producing animal products from cell cultures without slaughter.

Sustainable batteries designed for reuse, refurbishment, and recycling.

Sustainable indoor farming with closed-loop resource recycling.

AI-enhanced digital replicas for predictive urban management.

Secure data processing within isolated hardware enclaves.

Real-time monitoring of physiological data via wearables.

Precise gene-editing tool for modifying DNA sequences.

Integrated protection for connected physical systems.

Blockchain-based models for funding and sharing research.

Shared, open digital systems for identity, payments, and data.

Removing carbon dioxide directly from the atmosphere.

Encoding digital information into synthetic DNA for high-density archival.

Running AI processing locally on devices for speed and privacy.

Solid-state cooling materials that replace harmful refrigerants.

SMR, HAMR, BPM, MAMR, TDMR for improved hard disk density.

T-RAM, CBRAM, RRAM, phase-change memory, racetrack memory, and beyond-SRAM/DRAM storage.

Electric vertical takeoff aircraft for urban air mobility.

AI systems that provide transparent, understandable reasoning.

Bendable, stretchable circuits for wearable and conformable devices.

3D optical and holographic data storage for long-term archival.

Experimental systems studying ecosystem responses to elevated CO2.

Carbon cage molecules; experiments, diffusion, and programmable matter.

Versatile robots adaptable to diverse manufacturing and service tasks.

Precise modification of gene expression to treat disease and enhance traits.

Superconductors above liquid nitrogen; CRFE filters, experiments for lower temperatures.

Processing encrypted data without ever decrypting it.

Production and fueling systems for hydrogen-powered heavy vehicles.

Extracting and using resources from celestial bodies.

Self-managing power grids optimizing renewable energy flows.

Intelligent connection of people, processes, data, and things.

Converting motion from humans and environment into electrical energy.

High-bandwidth optical data transmission for space and satellite networks.

Biohybrid sensors using mycelium for real-time environmental monitoring.

AI-driven models for precise, hyper-local weather prediction.

AI and robotics automating waste sorting and material recovery.

Data storage and processing using magnons—spin waves—instead of electrons.

Designing microbial communities for health and environmental benefits.

Contact lenses overlaying digital content directly onto the user's vision.

Electronic devices using single molecules as functional components.

Hypothetical machines that manipulate matter at molecular scale.

Nanoparticles combined with biological processes to clean up environmental pollution.

Microscopic robots performing targeted medical and environmental tasks.

Mechanical devices at the nanometer scale for sensing, actuation, and computing.

Molecular-scale manufacturing systems building products with atomic precision.

Radio receivers and transmitters at the nanometer scale.

Manipulation of matter at atomic and molecular scale to create materials and devices with novel properties.

Lab-produced nanomaterials with enzyme-like catalytic activity, offering stability and lower cost than natural or synthetic enzymes.

Brain-inspired processors mimicking biological neurons for efficient, real-time AI.

Multi-principal-element materials with superior mechanical and thermal properties, accelerated by computational discovery.

Generating unlimited clean energy by fusing atomic nuclei.

Computing using light instead of electrons; some integrated-circuit components developed.

Light-controlled switching devices for optical computing.

Space-based computing infrastructure powered by solar energy.

Microfluidic devices replicating human organ functions for drug discovery.

Efficient, flexible solar cells using low-cost crystal materials.

Intelligent systems interacting physically with the real world.

Encryption algorithms resistant to quantum computer attacks.

Wireless energy transmission using focused electromagnetic waves.

Using engineered microbes to produce specific functional ingredients.

Adaptive road surfaces responding to environmental and traffic conditions.

GPS-free navigation using ultra-precise quantum sensors.

Leveraging quantum mechanics for exponentially faster problem solving.

Manipulating light at the quantum scale for sensing and computing.

AI combining generative models with trusted external data sources.

Materials conducting electricity with zero resistance at ambient temperatures.

Materials that autonomously repair cracks and damage.

Flexible robots capable of autonomously repairing physical damage.

Decentralized identity giving users control over their personal data.

2D silicon allotrope for nanoscale electronics.

Catalysis with single-atom precision for cleaner chemical reactions and sustainable production with reduced energy.

Transparent photovoltaic glass turning windows into power generators.

Orbital solar arrays beaming clean energy back to Earth.

Mapping and interacting with physical spaces using digital overlays.

Electronics using electron spin rather than charge; working prototypes in memory.

Coordinated groups of simple robots acting as a collective.

Tools for detecting and analyzing AI-generated content.

Advanced packaging for circuit cooling and thermoelectric power generation.

Stacked die and wafer-level integration for memory and data processing.

Controlling electronic properties by twisting stacked 2D materials.

Atomically thin materials improving power efficiency in electronics and enabling next-generation semiconductors and sensors.

Smart water systems for cooling cities and managing flood risks.

Recovering valuable materials from city waste streams.

Using Wi-Fi signals to monitor environmental conditions and occupancy.

Producing superior materials and components in microgravity environments.

Verifying information validity without revealing the underlying data.