Name: Particle Modeling of Dynamic Fragmentation (en Inglés)
Price: 89.26 USD
Availability: InStock
Author: Ge Wang
ISBN: 9783659388163

portada Particle Modeling of Dynamic Fragmentation (en Inglés)

Particle Modeling of Dynamic Fragmentation (en Inglés)

Formato

Libro Físico

Editorial

Lap Lambert Academic Publishing

Autor

Ge Wang

Idioma

Inglés

N° páginas

232

Encuadernación

Tapa Blanda

ISBN13

9783659388163

Particle Modeling of Dynamic Fragmentation (en Inglés)

Ge Wang (Autor) · Lap Lambert Academic Publishing · Tapa Blanda

Libro Nuevo Importado *

Envío: 24 a 31 días háb.

$ 178.23$ 89.26

-50%

* Costos de importación incluídos en el precio ✅

Libro Nuevo

Quedan 10 unidades

$ 89.26

Se enviará desde nuestra bodega entre el Lunes 01 de Junio y el Miércoles 10 de Junio

Más Info

Agregar a lista de deseos

Reseña del libro "Particle Modeling of Dynamic Fragmentation (en Inglés)"

Hybrid Lattice Particle modeling (HLPM) is an innovative approach for dynamic fragmentation of materials under extreme loads (e.g., high-speed impact, penetration, etc.). HLPM is established based on a combination of the particle modeling (PM) technique together with the conventional lattice modeling (LM) theory. By regarding materials as assembly of discrete media, HLPM is conceptually illustrated by fully dynamic particles (or "quasi-particles") placed at the nodes of a lattice network without explicitly considering their geometric size. The interaction potentials among the particles can employ either linear (quadratic) or nonlinear (Leonard-Jones or strain rate dependent polynomial) type as the axial/angular linkage. The defined spring constants are then mapped into lattice system, which are in turn matched with the material's continuum-level elastic moduli, strength, Poisson's ratio and mass density. As a promising new dynamic fracture solver of materials, HLPM has its unique advantages over the other numerical techniques which are mainly characterized as easy preparation of inputs, high computation efficiency, ability of post-fracture simulation and a multiscale model, etc.