Back to Top
☰ Contents
Bahrum's Research Portfolio hide

Comparison of Effectiveness Between Conventional Scouring & Bio-Scouring On Cotton Fabrics

Link to the Article in Google Scholar

Interaction of Some Properties among Yarns and Jersey, Rib, and Interlock Knit Fabrics

Link 1 to Google Scholar

Link 2

An experimental study toward eco-friendly bamboo fiber extraction for textiles

Link of the Thesis to ProQuest

Link 2 to UA

Production of Ecofriendly Natural Bamboo Bast Fiber and Assessment of Antibacterial Activity

Link to the Paper

Production of natural bamboo fibers-1: experimental approaches to different processes and analyses

Link to Taylor & Francis

Production of natural bamboo fiber—2: Assessment and comparison of antibacterial activity

Link to AATCC Journal of Research

Production of Natural Bamboo Fibers-3: SEM and EDX Analyses of Structures and Properties

Link to AATCC Journal of Research

Investigation of the Exraction Processes and Performance Properties of Kudzu Fibers

Link to the Paper

Production, modification, and characterization of natural bamboo fiber

Link of the Dissertation to ProQUest

Interaction of the Qualities and Properties between Yarns and Fabrics

Link to the Article

How is Vague Language Being Used in Retail Websites for Bamboo Viscose Products?

Link to Sustainability in Fashion

Production and modification of natural bamboo fibers from four bamboo species, and their prospects in textile manufacturing

Link to Springer Nature

Modified Techniques to Detect Antibacterial Activity of Bamboo and Natural Bamboo Fiber

Link to the Paper

Characterization of the crystallographic properties of bamboo plants, natural and viscose fibers by X-ray diffraction method

Link to The Journal of The Textile Institute

Analyses of the chemical compositions and structures of four bamboo species and their natural fibers by infrared, laser, and X-ray spectroscopies

Link to Springer Nature

Investigation and comparison of antibacterial property of bamboo plants, natural bamboo fibers and commercial bamboo viscose textiles

Link to The Journal of The Textile Institute

Carbide nanoparticle dispersion techniques for metal powder metallurgy

Link to MDPI: metals

Strategies of the Online Bamboo Viscose Clothing and Textiles Retailers

Link to Current Trends in Fashion Technology & Textile Engineering

Link to Juniper Publishers

An Investigation of Charging Effects by Different Factors on Carbon and Natural Bamboo Fibers in High-Resolution Scanning Electron Microscopic Imaging

Link to Journal of Natural Fibers

Investigation of the extraction processes and performance properties of kudzu fibers

Link to Journal of Natural Fibers

Hydrogen embrittlement and mechanical response of 304L steel with ZrC additions

Abstract

While stainless steels are widely used for hydrogen storage infrastructure, they can still be vulnerable to hydrogen embrittlement justifying the need to further improve their hydrogen resiliency. Here, we investigate the potential for transition metal carbide additions to improve the hydrogen compatibility of austenitic stainless steels. ZrC nanoparticles were dispersed in contents of 0.01–10 wt% in 304 L stainless steel powder, mixed via high energy ball milling, and subsequently consolidated using direct current sintering. To assess hydrogen compatibility, the tensile properties of similarly processed 304 L without ZrC nanoparticles were compared to 304 L with the ZrC additions; both materials were evaluated prior to and after hydrogen exposure (non-charged and H-precharged, respectively). Depending upon the ZrC phase fraction, the yield strengths varied from ∼325 to 560 MPa in the non-charged condition and from ∼375 to 550 MPa in the H-precharged condition. Strain at failure varied from ∼5 to 90 % and from ∼5 to 35 % in the non-charged and hydrogen-precharged conditions, respectively. Results from stress-strain profiles demonstrate limited efficacy of ZrC as a method to mitigate hydrogen embrittlement entirely but does demonstrate the potency of ZrC inclusions as strengthening addition to 304 L alloys without a loss of ductility.

Link to ScienceDirect

Protected By
Shield Security