Strategic Objectives
• Master the mechanics of stress and strain in solid electrolytes.
• Predict and prevent fracture-induced degradation in rigid cells.
• Optimize stack pressure to maintain seamless interfacial contact.
• Engineer robust architectures that withstand thousands of cycles.
The Core Challenge
Traditional battery models ignore the destructive physical forces that cause rigid solid-state interfaces to fracture and fail during expansion.
01
The Solid-State Paradigm Shift
02
Foundations of Elasticity
03
The Physics of Expansion
04
Hooke’s Law in Battery Design
05
Fracture Mechanics of Electrolytes
06
Interfacial Contact Mechanics
07
The Role of Young's Modulus
08
Plasticity and Yield Strength
09
Finite Element Analysis (FEA)
10
The Pressure Factor
11
Dendrite Growth as a Mechanical Issue
12
Poisson’s Ratio in Cell Architecture
13
Creep and Stress Relaxation
14
Brittle vs. Ductile Electrolytes
15
Surface Energy and Adhesion
16
Fatigue and Cyclic Loading
17
Toughness Enhancement Strategies
18
Thermal-Mechanical Coupling
19
Characterization Techniques
20
Manufacturing-Induced Stress
21
The Future of Mechanically-Aware Design
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