You can defeinitely try a Vibrating sample magnetometer measurements for M v.s H or B v.s H curve. it would give you a hysteresis loop with saturation magnetization and coercivities and remnant magnetization values. this would be usually the basic properties one would like to understand before going ahead. Its available in IITM and one in Madras University also.
You can defeinitely try a Vibrating sample magnetometer measurements for M v.s H or B v.s H curve. it would give you a hysteresis loop with saturation magnetization and coercivities and remnant magnetization values. this would be usually the basic properties one would like to understand before going ahead. Its available in IITM and one in Madras University also.
hematite (Fe2O3) is antiferromagnetic below its Néel temperature. So if you have pure hematite with TiO2, at ambient temperature there is nothing to do. The magnetic response will be very low. However, using a VSM ou SQUID you can do measurements at low temperatures and investigate your sample. To have quantitative information's that is the way.
Is your Fe2O3 small particles? superparamagnetic? you might need zero field cooling and field cooling (ZFC/FC) measurement. look at my topical review paper:Cobalt-based magnetic nanocomposites: fabrication, fundamentals and applications, J. Phys. D: Appl. Phys. 44 393001
agree, use VSM or SQUID, and, if you have a chance, use Mössbauer spectroscopy. You can find references in our review article
“Superparamagnetism and other magnetic features in granular materials: A review on ideal and real systems”, M. Knobel, W.C. Nunes, L. M. Socolovsky, E. De Biasi, J. M. Vargas, J. C. Denardin; Journal of Nanoscience and Nanotechnology 8 (2008) 2836–2857