Nirmal K. Sinha, Paul D. Barrette Engineering Physics of High Temperature Materials: Metals, Ice, Rocks and Ceramics 9781119420484

Варианты приобретения

Цена: 26286.00р.
Кол-во:
о цене
Наличие: Отсутствует. Возможна поставка под заказ.

При оформлении заказа до: 2025-08-04
Ориентировочная дата поставки: Август-начало Сентября
При условии наличия книги у поставщика.

Добавить в корзину

в Мои желания

Автор: Nirmal K. Sinha, Paul D. Barrette
Название: Engineering Physics of High Temperature Materials: Metals, Ice, Rocks and Ceramics
ISBN: 9781119420484
Издательство: Wiley
Классификация:

Науки о земле

Машиноведение и материаловедение

Материаловедение

ISBN-10: 1119420482
Обложка/Формат: Hardcover
Страницы: 300
Вес: 0.67 кг.
Дата издания: 24.07.2020
Серия: Earth Science
Язык: English
Размер: 275 x 221 x 28
Читательская аудитория: Professional & vocational
Ключевые слова: Mechanical engineering & materials,Earth sciences
Подзаголовок: Metals, ice, rocks and ceramics
Ссылка на Издательство: Link
Рейтинг:
Поставляется из: Англии
Описание:

Engineering Physics of High Temperature Materials: Metals, Ice, Rocks and Ceramics addresses an issue that is universally acknowledged and documented - that is, what causes a material to deform and fail at high temperatures and, more importantly, what are the mechanisms involved in the deformation processes leading to failure. This applies to ice, glass, ceramics, rocks and complex high-temperature alloys, including single crystals, used in gas-turbine engines.

Volume highlights include:

Experimental and theoretical studies on temperature-microstructure dependent delayed-elasticity (used to be called anelasticity) at high homologous temperature that has ready applications to the analysis of lithosphere-asthenosphere boundary (LAB) temperature regime inferred from seismic velocities
Establishes the facts that engineering physics of polycrystalline ice and ice sheets, floating on their own melt, hence at extremely high homologous temperatures, are analogous to Earths Asthenosphere and complex engineering materials like metallic alloys and ceramics used at high temperatures > 0.4Tm, where Tm is the melting point
Presents and emphasizes the fundamental grain-scale and lattice-scale (dislocations slip, climb and pileups) microstructural and micromechanical similarities of apparently different materials, such as metals, metallic alloys, ice, rocks and ceramics
Development of novel experimental technique, Strain Relaxation and Recovery Test (SRRT) for characterization of the pivotal, yet neglected, role of delayed elasticity in shaping the primary creep, and nucleation and multiplication of grain-boundary cracks during this period
Development of Elasto-Delayed Elastic-Viscous (EDEV) equation that offers unified mathematical and physical descriptions of the (a) shapes of constant-stress creep curve (primary, transitional minimum creep rate and tertiary), (b) constant strain-rate stress-strain curve and (c) constant-strain stress relaxation

Engineering Physics of High Temperature Materials is a valuable resource for students and researchers in the field of crystallography, mineralogy, petrology, structural geology, metamorphic geology, geophysics, glaciology, tectonics, engineering, mechanics, thermodynamics, high-temperature deformation, physics, metallurgy, ceramics, alloys, and material sciences.

Engineering Physics of High Temperature Materials: Metals, Ice, Rocks and Ceramics, Nirmal K. Sinha, Paul D. Barrette