Name: Generalized Reliability Methodology Applied to Brittle Anisotropic Single Crystals (en Inglés)
SKU: 59904073
Price: 28.86 USD
Availability: InStock
Author: National Aeronautics and Space Administr ; Salem, Jonathan A.
ISBN: 9781288915828

portada Generalized Reliability Methodology Applied to Brittle Anisotropic Single Crystals (en Inglés)

Generalized Reliability Methodology Applied to Brittle Anisotropic Single Crystals (en Inglés)

Formato

Libro Físico

Autor

National Aeronautics and Space Administr

Jonathan A. Salem

Editorial

Biblioscholar

Idioma

Inglés

N° páginas

226

Encuadernación

Tapa Blanda

Dimensiones

24.6x18.9x1.2 cm

Peso

0.41 kg.

ISBN13

9781288915828

Categorías

Educación

Generalized Reliability Methodology Applied to Brittle Anisotropic Single Crystals (en Inglés)

National Aeronautics and Space Administr (Autor) · Jonathan A. Salem (Autor) · Biblioscholar · Tapa Blanda

Libro Nuevo Importado

Envío: 16 a 22 días háb.

$ 57.73$ 28.86

-50%

Costos de importación incluídos en el precio ✅

Libro Nuevo

Quedan 50 unidades

$ 28.86

Llega entre el 22 Oct y el 05 Nov a Quito, Pichincha. Seleccionar ubicación

Agregar a lista de deseos

Reseña del libro "Generalized Reliability Methodology Applied to Brittle Anisotropic Single Crystals (en Inglés)"

A generalized reliability model was developed for use in the design of structural components made from brittle, homogeneous anisotropic materials such as single crystals. The model is based on the Weibull distribution and incorporates a variable strength distribution and any equivalent stress failure criteria. In addition to the reliability model, an energy based failure criterion for elastically anisotropic materials was formulated. The model is different from typical Weibull-based models in that it accounts for strength anisotropy arising from fracture toughness anisotropy and thereby allows for strength and reliability predictions of brittle, anisotropic single crystals subjected to multiaxial stresses. The model is also applicable to elastically isotropic materials exhibiting strength anisotropy due to an anisotropic distribution of flaws. In order to develop and experimentally verify the model, the uniaxial and biaxial strengths of a single crystal nickel aluminide were measured. The uniaxial strengths of the and crystal directions were measured in three and four-point flexure. The biaxial strength was measured by subjecting plates to a uniform pressure in a test apparatus that was developed and experimentally verified. The biaxial strengths of the single crystal plates were estimated by extending and verifying the displacement solution for a circular, anisotropic plate to the case of a variable radius and thickness. The best correlation between the experimental strength data and the model predictions occurred when an anisotropic stress analysis was combined with the normal stress criterion and the strength parameters associated with the crystal direction.