
525. Graphene-Powered Terahertz Sensors for Early Breast Cancer Detection
Explore how a miniaturized graphene biosensor uses tunable THz waves to detect breast cancer tumors as small as 1mm and determine TNM staging noninvasively.
Graphene production research, scalable manufacturing methods, reactor design, carbon conversion, and industrial process development.

Explore how a miniaturized graphene biosensor uses tunable THz waves to detect breast cancer tumors as small as 1mm and determine TNM staging noninvasively.

A detailed exploration of molecular dynamics research revealing how amino acids interact with graphene surfaces, highlighting the roles of zwitterionic states and ionic strength in contaminant transport.

Researchers have developed a cyclophane-based shielding strategy to prevent graphene nanoribbons from aggregating, significantly enhancing charge carrier mobility and enabling the creation of single-electron transistors.

Researchers have developed a machine-learning-assisted electrical resistance tomography system to detect functional defects in laser-induced graphene that are completely invisible to traditional microscopes.

Explore how twisted bilayer graphene creates Moiré Phonon Topological Polarons, enabling non-Abelian statistics and anomalous acoustic resonances for next-generation quantum control.

Researchers have developed a high-performance heterogeneous catalyst by anchoring copper-substituted Keggin polyoxometalates onto graphene oxide, achieving 92% starch conversion with exceptional selectivity.

Discover how a twisted bilayer structure inspired by graphene can be used to create phononic crystals that block low-frequency vibrations and sound waves.

Researchers explore the integration of graphene and high-performance substrates to create tunable, high-gain X-band radar antennas for next-generation satellite communications.

Discover how a new microwave-assisted synthesis of graphene and copper nanoparticles creates a point-to-plane bridging architecture that dramatically improves thermal conductivity in polymer composites.

Explore how researchers are utilizing graphene's unique tunneling phenomenon and percolation theory to create flexible, high-sensitivity pressure sensor arrays for real-time medical monitoring.

Researchers have combined biomedical microjet technology with silicon-carbon anodes to create high-capacity batteries that overcome the traditional problem of material expansion during charging.

An in-depth exploration of a massive bibliometric analysis detailing how reduced graphene oxide is transforming water purification and pollutant detection across thousands of global research publications.

Explore how integrating graphene into polypropylene creates a high-performance, low-cost nanocomposite capable of meeting the rigorous mechanical and thermal demands of aerospace engineering.

Explore how researchers are using bond additive topological indices to analyze Octa Graphene, a unique carbon nanosheet that could revolutionize nano-electronics and drug delivery.

Scientists have developed a sustainable peel-off gel mask using reduced graphene oxide derived from rice husk and chitosan, offering a potent natural alternative for treating microbial skin infections and acne.

Explore the theoretical framework of Magnetohydrodynamic discoid vehicles, where UV lasers, superconducting magnets, and graphene supercapacitors replace chemical combustion for planetary transit.

Researchers have developed a multilayer metamaterial biosensor combining graphene, MXene, gold, and copper to detect waterborne bacteria. By utilizing terahertz waves and machine learning optimization, this label-free system identifies pathogens through minute changes in the refractive index of water.

An exploration of how adding graphene oxide, carbon nanotubes, and nanoclay to epoxy resins improves mechanical strength and thermal stability, while highlighting the critical importance of filler concentration and dispersion.

Researchers have discovered that doping graphene with nonmetals like Boron, Phosphorus, and Nitrogen creates a chemical attraction that forces sodium metal to deposit uniformly, eliminating dangerous dendrite growth.

Discover how researchers are using exfoliated graphene nanoplatelets and a specialized chemical strategy to transform common polymers into high-efficiency energy harvesters for self-powered IoT sensors.

Researchers have utilized a single-spin quantum sensor to directly image magnetotransport at graphene-metal interfaces, revealing how Lorentz deflection and contact resistance shape current flow.

A proposed contactless growth architecture utilizes argon pressure cushions and graphene nanoparticles to eliminate the wasteful slicing process in semiconductor manufacturing, potentially reducing silicon waste by up to 70 percent.

Explore a proposed shift from traditional Czochralski ingot growth to a contactless, graphene-seeded method that could reduce silicon waste by up to 70 percent.

Researchers have developed a high-performance supercapacitor electrode by fusing liquid gallium and indium with reduced graphene oxide into a lightweight aerogel, combining fast charging with high energy density.