Partikül Boyutunun Argon Atmosferi Altında Sinterlenen 316L İçi Boş Fiber Membranların Yapısına ve Özelliklerine Tane Etkisi

Year 2021, , 625 - 635, 25.04.2021

Ezgi Şahin Onur Ertuğrul , Özgün Yücel

https://doi.org/10.29130/dubited.868915

Abstract

316L paslanmaz çelikler içi boş fiber membranlar, polimer ve seramik esaslı membranlara alternatif olarak kullanılmaktadır. 316L içi boş fiber membranların kullanım alanları kimya ve atık arıtma endüstrilerinde gaz ve sıvı ayrıştırmaları için destek ve partikül filtreleri gibi uygulamalardır. Birçok metod arasında, üretim tekniği olarak en popüler olan kuru-ıslak eğirme tekniği seçilmiştir. Çalışmanın amacı farklı toz partikül boyutlarında (kaba, ince ve bunların karışımı) içi boş fiber membranların üretilmesi ve bunların yapıları ve kimyasal kompozisyon, gözenek miktarı, ortalama gözenek boyutu ve gözenek dağılımlarını incelemektir. Aynı zamanda, mekanik özellikleri belirlemek amacıyla 3-nokta eğme testleri uygulanmıştır. İnce partiküllerden üretilen numuneler kaba partikül boyutlu numunelerden daha yüksek yoğunlaşma göstermektedir. Gözenek yapısına bakıldığında, karışım partikül boyutu ince partikül boyutuna kıyasla daha düşük gözeneklilik ve gözenek boyutu sunmaktadır. Öte yandan, en küçük partikül boyutu en yüksek mukavemet ve eğilme miktarı sunmaktadır.

Keywords

İçi boş fiber, Membran, Kuru-ıslak eğirme, Sintering

Supporting Institution

İzmir Katip Çelebi Üniversitesi

Project Number

2018-GAP-MÜMF-0003

Influence of Particle Size on the Structure and Properties of 316L Hollow Fiber Membranes Sintered Under Argon Atmosphere

Abstract

316L based stainless steel hollow fiber membranes (HFs) are used as an alternative for polymer and ceramic based membranes. Application areas of 316L hollow fiber membranes are applications such as support or particle filter of gas and liquid separations in chemical and waste treatment industries. Among various methods, dry-wet spinning technique was selected as the production method of hollow fiber membranes since it is the most popular one. The aim of the study is to produce hollow fiber membranes in different powder particle sizes (coarse, fine, and their mixture), and to examine their structure and also their properties such as chemical compositions, pore amount, average pore size, and pore distribution. 3-point bending tests were also used to determine their mechanical properties. HFs produced from fine particles show higher densification than coarse particle size samples. In terms of pore structure, mixed particle size yields lower porosity and pore size than the finest particle size. On the other hand, the finest particle size yields the highest bending strength and bending deflection.

Keywords

Hollow fiber, Membrane, Dry-wet spinning, 316L, Sintering

Project Number

2018-GAP-MÜMF-0003

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