Fig xA Different value of

Fig. 9. Different value of ε for different doping XL335 with doping level (a) x = 0.1, (b) x = 0.2 for f = 115 Hz at 300 K.Figure optionsDownload full-size imageDownload as PowerPoint slide
3.3. Optical property
Fig. 10. Optical absorbance spectra for (a) Zn0.9Mn0.1O and (b) Zn0.9Mn0.05Fe0.05O nanoparticles, measured at 300 K. Insets show the derivative plot of absorbance spectra fitted with the Gaussian function, from which the semiconducting band gap is estimated to be Eg = 3.29 eV.Figure optionsDownload full-size imageDownload as PowerPoint slide
4. Conclusions
AcknowledgementOne of the authors S.K. Mandal acknowledges the DST Project (No. SR/FTP/PS-019/2012), India for financial support. We acknowledge Dr. A. Nath (NIT Agartala) and IIT Kharagpur, India for providing us some experimental facilities.
Sn-based alloy; Sn–Si–Ti; Phase equilibria; Intermetallic
1. Introduction
Since systematic investigation in the whole composition range of the Sn–Si–Ti system is white blood cell en valuable way for identifying new phases, and phase equilibria can provide helpful knowledge on phase constituents in Sn(and/or Ti)-based alloys, the purpose of the present work is to investigate experimentally the Sn–Si–Ti ternary phase diagram, mainly by the construction of isothermal sections at 900 and 1200 °C.