We present a universal relation for crack surface cohesion including surface relaxation. Specifically, we analyze how N atomic planes respond to an opening displacement at its boundary, producing structurally relaxed surfaces. Via density-functional theory, we verify universality for metals (Al), ceramics (α−Al_2O_3), and semiconductors (Si). When the energy and opening displacement are scaled appropriately with respect to N, the uniaxial elastic constant, the relaxed surface energy, and the equilibrium interlayer spacing, all energy-displacement curves collapse onto a single universal curve
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
Invited Feature Paper In fracture mechanics, established methods exist to model the stability of a ...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
We present a universal relation for crack surface cohesion including surface relaxation. Specificall...
The universal binding energy relation (UBER), derived earlier to describe the cohesion between two r...
The universal binding energy relation (UBER), derived earlier to describe the cohesion between two r...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
We present an analytical, elastic analysis for the energy and relaxation of stepped surfaces. The an...
We investigate some connections between the continuum and atomistic descriptions of de- formable cry...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
Invited Feature Paper In fracture mechanics, established methods exist to model the stability of a ...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
We present a universal relation for crack surface cohesion including surface relaxation. Specificall...
The universal binding energy relation (UBER), derived earlier to describe the cohesion between two r...
The universal binding energy relation (UBER), derived earlier to describe the cohesion between two r...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
We present an analytical, elastic analysis for the energy and relaxation of stepped surfaces. The an...
We investigate some connections between the continuum and atomistic descriptions of de- formable cry...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...
Invited Feature Paper In fracture mechanics, established methods exist to model the stability of a ...
A simple model of cleavage in brittle crystals consists of a layer of material containing N atomic p...