QUANTUM BIOSENSING AT THE LIMIT Quantum Sensors for Molecules, Cells, Fields, and Living Systems QUANTUM BIOSENSING AT THE LIMIT is a large-scale research monograph exploring how quantum sensing technologies may extend the measurable frontier of living systems—from weak magnetic fields and molecular signals to cells, tissues, intracellular environments, and future molecular observatories.
Year: 2026
Type: other
Abstract: QUANTUM BIOSENSING AT THE LIMITQuantum Sensors for Molecules, Cells, Fields, and Living Systems QUANTUM BIOSENSING AT THE LIMIT is a large-scale research monograph exploring how quantum sensing technologies may extend the measurable frontier of living systems—from weak magnetic fields and molecular signals to cells, tissues, intracellular environments, and future molecular observatories. The central question of the book is: How weak can a biological signal become while remaining reliably measurable before noise, drift, calibration burden, and biological variability erase the practical advantage? The book develops a systematic framework connecting quantum physics, sensing architectures, biological interpretation, reproducibility, translation, and long-term research infrastructure. Major research directions include: • NV-center and spin-based sensing• Atomic magnetometry and biomagnetic fields• Single-molecule and low-concentration detection• Nanoscale thermometry and magnetic resonance• Intracellular and cellular sensing• Continuous and networked biosensing• Organ-on-chip and living-system interfaces• AI-assisted quantum measurement• Molecular observatories• Standards, calibration, reproducibility, and translation A central framework introduced in the book is the Starli Quantum Sensing Index (QSI), designed to examine useful sensing performance through the combined dimensions of sensitivity, specificity, stability, reproducibility, noise, drift, calibration burden, and sample burden. The monograph also introduces a family of named research relations, including the Biosignal Survivability Bound, Molecular Detectability Frontier, Intracellular Readability Coefficient, Continuous Biosensing Stability Law, and Molecular Observatory Readiness Index. The visual language of the book uses three-dimensional research geometries—including tetrahedra, prisms, pyramids, signal surfaces, and observatory networks—to represent multidimensional relationships that are difficult to capture with linear diagrams alone. The work is organized as a 100K+ high-density English research monograph with 82 chapters and 200 Research Gates. The Research Gates are intentionally left as open research entrances rather than final answers. Each gate is designed to support future experimentation, criticism, replication, reinterpretation, and continuation by later researchers, humans, AI systems, or hybrid scientific teams. The guiding principle of the book is simple: The purpose of quantum biosensing is not to make biology more mysterious. It is to make weak biological reality more measurable, interpretable, reproducible, and scientifically useful. Quantum Effect→ Measurement→ Biological Meaning→ Verified Evidence→ Real-World Utility This volume is part of the Starli “AT THE LIMIT” research series and the ongoing research program of Starli Research Institute XV, focused primarily on quantum science and its emerging interfaces with life, computation, engineering, and future civilization.
Author: 33
Language: English
Subfield: Materials Chemistry
Field: Materials Science
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7214640056