Эрозионный износ термореактивных полимеров и композитов твердыми частицами при комнатной и повышенных температурах: экспериментальное исследование
Автор: Мишнев Максим Владимирович, Королев Александр Сергеевич
Журнал: Строительство уникальных зданий и сооружений @unistroy
Статья в выпуске: 5 (98), 2021 года.
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Работа посвящена экспериментальным исследованиям стойкости к газоабразии полимерных термореактивных вяжущих и композитов на их основе, предназначенных для использования в конструкциях газоотводов промышленных предприятий (преимущественно металлургических). Разработано и изготовлено новое экспериментальное оборудование для газоабразивных испытаний на изнашивание. Данное оборудование позволяет проводить ускоренные испытания при температуре до 250°С при углах атаки 90° и 45°. Проведенные на данном оборудовании испытания позволили получить зависимость интенсивности изнашивания рассматриваемых вяжущих в газоабразивном потоке от изменения температуры и изменяющихся вследствие этого механических характеристик. Оценено влияние длительной выдержки при температуре, превышающей температуру стеклования, на их стойкость к газоабразивному изнашиванию. Оценена износостойкость в газоабразивном течении стеклопластиков на основе эпоксидных и эпоксифенольных связующих и различных видов стеклотканей.
Эрозия твердыми частицами, композиционные материалы, термореактивные смолы, стекловолокно, износостойкость, газоходы, абразивный поток
Короткий адрес: https://sciup.org/143178330
IDR: 143178330 | УДК: 69 | DOI: 10.4123/CUBS.98.4
Solid particle erosion wear of thermosetting polymers and composites at room and elevated temperatures: an experimental study
The work is devoted to experimental researches of resistance to gas abrasion of polymeric thermosetting binders and composites on their basis, intended for use in constructions of gas exhaust ducts of the industrial enterprises (mainly metallurgical). The new experimental equipment for gas-abrasive wear tests has been developed and made. This equipment allows to carry out accelerated tests at temperatures up to 250oC at angles of attack of 90o and 45o. The tests carried out on this equipment allowed to receive dependence of wear intensity of the considered binders in a gas-abrasive flow on temperature change and mechanical characteristics changing due to it. The influence of long-term exposure at the temperature exceeding the glass transition temperature on their resistance to gas-abrasive wear is evaluated. The wear resistance in gas abrasion flow of glass-reinforced plastics based on epoxy and epoxy-phenolic binders and different types of glass fabrics is evaluated.
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