# Nanotech ## 2031 – 5.4.1 High-Tech Band-Aids ## 2032 – 4.1.1 New Synthesis Method for Graphene Using Agricultural Waste 5.2.1 A Quick and Simple Blood Test to Detect Early-Stage Cancer ## 2033 – 3.2.1 Getting Closer to 3D Nanoprinting ## 2034 – 2.1 Ultra-Stretchable Silicon 3.1.1 Assembling Nanoparticles into 3D Structures with Microdroplets 5.1.1 Magnetic Nanovoyagers in Human Blood ## 2035 – 4.2.1 MAX Phases Get Two-Dimensional as Well ## 2036 – 1.1.1 Self-Powered Smartwear 5.2.2 Nanoparticles Allow Simple Monitoring of Circulating Cancer Cells 5.3.1 Untethered Active Microgripper for Single-Cell Analysis ## 2037 – 3.2.2 The Emergence of 3D-Printed Nanostructures 4.2.2 Transistor Made from All-2D Materials 5.3.2 New Technique Precisely Determines Nanoparticle Uptake into Individual Cells 5.4.2 Surface-Modified Nanocellulose Hydrogels for Wound Dressing ## 2038 – 2.2 Rewritable, Transferable and Flexible Sticker-Type Organic Memory 4.1.1 New Synthesis Method for Graphene Using Agricultural Waste ## 2039 – 1.1.2 Cotton T-Shirts As Batteries 5.4.3 Curcumin Nanoparticles as Innovative Antimicrobial and Wound Healing Agents ## 2040 – 3.2.3 Printing in Three Dimensions with Graphene 4.2.3 Novel Mono-Elemental Semiconductors: Arsenene and Antimonene Join 2D Family ## 2041 – 5.1.2 Microrobots to Deliver Drugs on Demand 5.2.3 Multiplexing Biosensors on a Chip for Human Metabolite Detection 5.3.3 Optical Sensor Detects Single Cancer Cells ## 2042 – 1.1.3 Graphene Yarns Turn Textiles into Supercapacitors 3.1.2 A Design Guide to Self-Assemble Nanoparticles into Exotic Superstructures ## 2043 – 4.1.3 Graphene from Fingerprints 4.2.4 Vanadium Disulfide—A Monolayer Material for Li-Ion Batteries 5.3.4 Catch and Release of Individual Cancer Cells ## 2044 – 2.3 Roll-to-Roll Production of Carbon Nanotube-Based Supercapacitors 3.2.4 Fully 3D-Printed Quantum Dot LEDs to Fit a Contact Lens 5.1.3 First Demonstration of Micromotor Operation in a Living Organism ## 5.2.4 Multimodal Biosensor Integrates Optical, Electrical, and Mechanical Signals ## 2045 – 1.2.1 Solar Cell Textiles ## 2046 – 5.4.4 Multifunctional RNA Nanoparticles to Combat Cancer and Viral Infections ## 2047 – 3.1.3 3D Nanopatterning with Memory-Based, Sequential Wrinkling 5.2.5 Detecting Damaged DNA with Solid-State Nanopores 5.3.5 Sensing of Single Malaria-Infected Red Blood Cells 1.1.4 Silky Substrate Makes Flexible Solar Cells Biocompatible ## 2048- 2.4 Foldable Capacitive Touch Pad Printed with Nanowire Ink 3.2.5 3D-Printed Programmable Release Capsules 4.1.4 Graphene Laminate Drastically Changes Heat Conduction of Plastic Materials ## 2049 – 1.2.2 Complete Solar Cells Printed by Inkjet## 5.4.5 Replacing Antibiotics with Graphene-Based Photothermal Agents 5.4.6 Nanotechnology Against Acne* ## 2050 – 1.1.5 Folding Origami Batteries 2.5 Computer Memory Printed on Paper 3.1.4 Spraying Light—the Fabrication of Light-Emitting 3D Objects 4.2.5 Chemically Enhanced 2D Material Makes Excellent Tunable Nanoscale Light Source 5.1.4 Multiplexed Planar Array Analysis from Within a Living Cell ## 2051 – 2.6 Nanopaper Transistors 3.2.6 Embedded 3D-Printing for Soft Robotics Fabrication ## 2052 – 5.4.7 Biofunctionalized Silk Nanofibers Repair the Optic Nerve ## 2053 – 3.1.5 Microfabrication Inspired by LEGO™ 5.3.6 Novel Mechanobiological Tool for Probing the Inner Workings of a Cell ## 2054 – 2.7 Approaching the Limits of Transparency and Conductivity with Nanomaterials 4.1.5 Graphene Quantum Dot Band-Aids Disinfect Wounds 5.2.6 Wearable Graphene Strain Sensors Monitor Human Vital Signs ## 2055 – 1.1.6 Towards Self-Powered Electronic Papers 1.2.3 Solar Paint Paves the Way for Low-Cost Photovol## taics ## 2056 – 5.1.5 Self-Powered Micropumps Respond to Glucose Levels 5.4.8 Move Over Chips—Here Come Multifunctional Labs on a Single Fiber ## 2058 – 1.1.7 Light-Driven Bioelectronic Implants Don’t Need Batteries 2.7 Approaching the Limits of Transparency and Conductivity with Nanomaterials 3.1.6 Atomic Calligraphy 5.2.9 Ultrafast Sensor Monitors You While You Speak 5.3.7 Snail-Inspired Nanosensor Detects and Maps mRNA in Living Cells 5.4.10 A Nanoparticle-Based Alternative to Viagra*## ## 2059 – 4.1.6 A Nanomotor that Mimics an Internal Combustion Engine 5.4.9 Nanoparticles Accelerate and Improve Healing of Burn Wounds ## 2060 – 1.1.8 A Stretchable Far-Field Communication Antenna for Wearable Electr## onics 5.2.10 Detecting Flu Viruses in Exhaled Breath ## 2061 – 3.1.7 Complex Assemblies Based on Micelle-Like Nanostruc tures 4.1.7 The Most Effective Material for EMI Shielding 5.1.6 Sneaking Drugs into Cancer Cells ## 2062 – 5.3.8 Silicon Chips Inserted into Living Cells Can Feel the Pressure ## 2063 – 1.1.9 Reversibly Bistable Materials Could Revolutionize Flexible Electronics 1.2.4 Paper Solar Cells 3.1.8 Precise Manipulation of Single Nanoparticles with E-Beam Tweezers 5.2.11 Nanosensor for Advanced Cancer Biomarker Detection ## 2064 – 5.1.7 Nanoparticle-Corked Nanotubes as Drug Delivery Vehicles 5.2.12 Optical Detection of Epigenetic Marks ## 2065 – 1.2.5 Recharging Wearable Textile Battery by Sunlight 4.1.8 Eavesdropping on Cells with Graphene Transistors 2.10 Nanoelectronics on Textiles, Paper, Wood and Stone 5.4.11 Light-Triggered Local Anesthesia ## 2066 – 5.2.13 Nanosensor Tattoo on Teeth Monitors Bacteria in Your Mouth 5.4.12 Toward Next-Generation Nanomedicines for Cancer Therapy ## 2067 – 1.1.10 Nanogenerators for Large-Scale Energy Harvesting 5.1.8 Plasmonic Nanocrystals for Combined Photothermal and Photodynamic Cancer Therapies ## 2068 – 2.9 Integrating Nanoelectronic Devices onto Living Plants and Insects 3.1.9 Trapping Individual Metal Nanoparticles in Air 4.1.9 Graphene Beats Polymer Coatings in Preventing Microbially-Induced Corrosion ## 2070 – 3.1.10 Plant Viruses Assist with Building Nanoscale Devices 5.2.14 Tracking Nanomedicines Inside the Body ## 2071 – 4.1.10 Janus Separator: A New Opportunity to Improve Lithium–Sulfur Batteries 5.3.9 Direct Observation of How Nanoparticles Interact with the Nucleus of a Cancer Cell ## 2072 – 3.1.11 Sculpting 3D Silicon Structures at the Single Nanometer Scale ## 2073 – 5.1.9 Remotely Activating Biological Materials with Nanocomposites 5.2.15 Measuring Femtoscale Displacement for Photoacoustic Spectroscopy ## 2074 – 5.1.10 Pre-Coating Nanoparticles to Better Deal with Protein Coronas 5.3.10 A Precise Nanothermometer for Intracellular Temperature Mapping ## 2075 – 3.1.12 Probing the Resolution Limits of Electron-Beam Lithography ## 2076 – 5.2.16 Reduced Graphene Oxide Platform Shows Extreme Sensitivity to Circulating Tumor Cells ## 2077 – 5.3.11 Direct Observation of Drug Release from Carbon Nanotubes in Living Cells ## 2078 – 3.1.13 Foldable Glass ## 2080 – 3.1.14 Plasmonic Biofoam Beats Conventional Plasmonic Surfaces ## 2081 – 3.1.15 Nanotechnology in a Bubble ## 2083 – 3.1.16 Self-Assembly Machines—A Vision for the Future of Manufacturing ## 2086 – 5.3.12 Functionalizing Living Cells