Overview

The bulk of the content of this knowledge base. It focuses on scientific, engineering, and mathetical research.

This will also:

Reference historical and active projects related to each topic, including tools and applications
Point out open questions in the field, that may guide future research directions

The topics in this section are organized in order of physically smallest to physically largest in scale.

Fundamental Theoretical Foundations

Mathematics of Molecular Systems
- Computational models of molecular interactions
- Algorithms for molecular design and simulation
- Information theory applied to molecular systems
Molecular Programming Theory
- Formal languages and programming paradigms for molecular systems
- Algorithms for programming molecular machines and circuits
- Theoretical limits of molecular computation
Quantum Mechanics
- Quantum chemistry for molecular system simulations
- Quantum computing applied to molecular systems
- Quantum effects in molecular design and behavior
Complex Systems Theory
- Emergent behavior in molecular systems
- Network theory for molecular and biochemical pathways
- Modeling interactions in complex molecular networks

Molecular Design
- Designing small molecules and ligands for specific functions
- Molecular dynamics and interaction modeling
- Synthesis of novel molecular compounds and materials
Molecular Machines
- Molecular motors, switches, and actuators
- DNA and protein-based molecular machinery
- Molecular gear systems and programmable molecular devices
Synthetic Biology and Genetic Engineering
- Engineering genetic circuits and systems
- Gene editing and modification for molecular programming
- Creating and modifying DNA/RNA sequences for specific tasks
Chemical and Biochemical Synthesis
- Chemical synthesis of complex molecules and molecular structures
- Enzyme design and optimization
- Bio-synthetic pathways for molecular functions
Chemical Reaction Networks
- Engineering molecular reaction pathways for desired outcomes
- Programming dynamic chemical reactions for feedback control
- Design of oscillatory or cyclic molecular networks

Nanomaterials and Nanostructures
- Self-assembled nanostructures using molecular engineering
- DNA origami and programmable 2D/3D nanostructures
- Nanotubes, nanowires, and other molecular-scale materials
Molecular Electronics
- Molecular transistors, memory, and logic gates
- DNA-based data storage systems
- Molecular-scale sensors and actuators
Nanorobotics and Nanomachines
- Programmable molecular robots and nanobots
- Nanoscale manipulators for medical and environmental applications
- Nanorobots for targeted drug delivery and diagnostics
Nanofabrication
- Techniques for molecular-level fabrication of nanostructures
- Bottom-up self-assembly and directed assembly techniques
- Hybrid approaches for nanoscale construction (e.g., molecular + top-down)

Supramolecular Chemistry
- Non-covalent interactions between molecules for self-assembly
- Molecular recognition and binding mechanisms
- Designing supramolecular systems for specific tasks (e.g., sensors, catalysts)
Microscale Fabrication
- Microfluidics and microreactors for molecular manipulation
- Fabrication of molecular circuits on the microscale
- Microfabricated devices for molecular-scale research and applications
Molecular Sensors and Biosensors
- Designing molecular sensors for environmental and biological detection
- Protein, RNA, and DNA-based biosensors
- Chemical sensing at the molecular and nanoscale
Microscale Actuators and Motors
- Micro-scale mechanical actuators controlled by molecular components
- Micro-robots and devices powered by molecular motors
- Molecular switches for controlling microscale mechanisms

Molecular-Level Manufacturing
- Scalable processes for building molecular structures
- Molecular programming for manufacturing complex materials
- Bottom-up assembly of macroscopic structures from molecular components
Programmable Materials
- Smart materials that respond to external stimuli (e.g., temperature, light)
- Materials with programmable properties at the molecular level
- Adaptive and self-healing materials
Synthetic Biology at the Macroscale
- Engineering living organisms for production at scale
- Bioreactors and biofabrication for large-scale molecular manufacturing
- Creating macro-scale systems based on engineered genetic circuits
Molecular Programming for Macroscale Applications
- Molecular-level control of large systems (e.g., smart textiles, biodegradable plastics)
- Integration of molecular machines into functional materials for practical use
- Large-scale application of molecular technologies in healthcare, energy, and environment
Metabolic Engineering and Industrial Biotechnology
- Designing biological systems for large-scale chemical production
- Engineering microbes and cells for industrial-scale processes
- Application of engineered organisms in pharmaceutical, food, and energy industries

Multiscale Modeling and Simulation
- Integrating molecular-scale simulations with larger-scale system behavior
- Co-simulation of molecular, nanoscale, and microscale systems
- Predictive modeling of complex molecular systems at the systems level
System Biology and Molecular Pathways
- Designing complex biochemical pathways and metabolic networks
- Systems biology approaches to understand molecular interactions
- Engineering cellular systems for specific outcomes (e.g., biofuel production, therapeutic compounds)
Biocircuitry and Network Engineering
- Creating engineered gene networks and biochemical circuits
- Interfacing biological and synthetic circuits for hybrid systems
- Programming cells and molecular systems to perform complex tasks in unison

Molecular-Level Manufacturing for Industry
- Scalable molecular systems for mass production of materials
- Molecular-based manufacturing techniques (e.g., nanofabrication, bio-manufacturing)
- Automation of molecular assembly in large-scale production systems
Molecular Fabrication for Infrastructure
- Building self-assembling, self-repairing materials for construction
- Programmable concrete and bio-based construction materials
- Molecular programming in the development of sustainable infrastructure

Molecular Environmental Engineering
- Designing molecular systems for pollution detection and remediation
- Carbon capture and molecular systems for mitigating environmental damage
- Engineering microbes for waste breakdown and resource recycling
Molecular Medicine and Therapeutics
- Targeted drug delivery using molecular machines and nanostructures
- Engineering molecular systems for precision medicine
- Molecular diagnostics and biosensors for disease detection
Molecular Technologies in Healthcare
- DNA-based diagnostics and disease markers
- Molecular systems for gene therapy and tissue regeneration
- Molecular sensors for real-time health monitoring
Ethics and Regulation of Molecular Technologies
- Ethical concerns with gene editing, molecular programming, and synthetic biology
- Regulatory frameworks for the use of molecular technologies in medicine and industry
- Risk management and safety concerns in molecular and nanoscale engineering