Free shipping on orders over 19,990 Ft via Packeta, Fox Post Box, and DPD Collection Point

Check order status

Become part of a community of book lovers from all over the world and get access to a whole bunch of benefits. Create an account for free

Free delivery for purchases over 19 990 Ft

DPD point 990 Ft DPD courier 1 190 Ft GLS point 1 190 Ft Hungarian Post 1 795 Ft Hungarian Post 1 690 Ft Hungarian Post 1 690 Ft FoxPost 1 190 Ft Packeta point 1 190 Ft GLS courier 1 690 Ft

Contact

How to shop

Help

My account

▸ Empty :-(

Free shipping on orders over 19,990 Ft via Packeta, Fox Post Box, and DPD Collection Point

Advanced Material Properties

Name: Advanced Material Properties
Brand: KS OmniScriptum Publishing
SKU: 51608762
Price: 31104 HUF
Availability: InStock
Author: Jyothi K R
ISBN: 9786209640308

Jyothi K R

Bhagya K R

Nagabhushana H

Language

English

Book Paperback

Libristo code: 51608762

Publishers KS OmniScriptum Publishing, March 2026

This book presents a comprehensive study on the synthesis, characterization, and multifunctional app... Full description

Libristo code: 51608762

207 b

31 104 Ft

In stock at our supplier Shipping in 8-11 days

Up to 30 days for returns

Customers also purchased

Wierszyki świąteczne Michał Rusinek

Hardback

2 706 Ft

Glenn Murcutt. Disegni per otto case Paolo Giardiello

Paperback

10 292 Ft

Jak wygrać Grand Prix. Tajniki strategii w F1 Bernie Collins

Paperback

4 866 Ft

Mały solfeż Lasocki Józef

Paperback

2 962 Ft

Утилизация медицинских & Aruna Biswas

Paperback

20 916 Ft

Das große Lesebuch Sigmund Freud

Hardback

5 392 Ft

This book presents a comprehensive study on the synthesis, characterization, and multifunctional applications of rare-earth-doped silicate-based nanomaterials, with a particular focus on lithium aluminum silicate (LiAlSiO₄) systems synthesized via the solution combustion method. It explores the unique structural, optical, and electrical properties imparted by dopants like Europium, Samarium, and Praseodymium, highlighting their potential in photocatalysis, energy storage, radiation sensing, and advanced electronics. Detailed analyses using techniques such as XRD, SEM, TEM, FTIR, DRS, and impedance spectroscopy reveal insights into crystallinity, morphology, band gap behavior, and dielectric performance. The materials demonstrate high photocatalytic efficiency, stable radiation response, and excellent dielectric properties, making them suitable for applications in environmental remediation, space technology, and next-generation electronic devices. The study concludes with a summary of key findings and future research directions in the field of functional nanomaterials.