Academic publishing in Europe and N. America

Archive Publication ethics Submission Payment Contacts
In the original languageTranslation into English

Water purification from radioactive isotopes and heavy metals.

Authors

Dmytro Kovalevskyi

Rubric:Technical sciences in general
6
0
Quote
6
0

Annotation

This study presents a method for water purification from radioactive isotopes and heavy metal ions using biomass derived from granulated dried algae without the use of chemical reagents. It has been established that dried algal biomass exhibits pronounced ion-exchange properties, enabling the effective adsorption of heavy metal ions and radioactive isotopes. The purification process is carried out by passing water through a volume of biomass, where ion exchange occurs during the contact time, resulting in the removal of contaminating components. Experimental results and industrial application of treatment systems at nuclear facilities have demonstrated that the purification level can reach residual concentrations as low as 0.000001 mg/L, exceeding current environmental standards.

Keywords

Heavy metal ions; Radioactive isotopes; Biomass derived from marine algae; Granulated dried algae; Radioactive isotope ions; Ion-exchange capacity; Ion-exchange reactions for the adsorption of radioactive isotope ions.

Authors

Dmytro Kovalevskyi

Rubric:Technical sciences in general
6
0

Share

6
0

References:

United States Patent No. 10,732,237. Slobozhanyuk et al. Magnetic resonance imaging machine. August 4, 2020.

United States Patent No. 10,564,308. Godoy et al. Electron paramagnetic resonance (EPR) techniques and apparatus for performing EPR spectroscopy on a flowing fluid. February 18, 2020.

United States Patent No. 9,952,297. Wang. Parallel plate transmission line for broadband nuclear magnetic resonance imaging. April 24, 2018.

United States Patent No. 9,316,709. Hetherington et al. Transceiver apparatus, system and methodology for superior in vivo imaging of human anatomy. April 19, 2016.

United States Patent No. 9,018,954. Yonamoto et al. Sample holder for electricity-detection electron spin resonance device. April 28, 2015.

United States Patent No. 8,884,608. Neu et al. AFM-coupled microscale radiofrequency probe for magnetic resonance imaging and spectroscopy. November 11, 2014.

United States Patent No. 8,780,344. Tang et al. Waveguides configured with arrays of features for performing Raman spectroscopy. July 15, 2014.

United States Patent No. 8,754,644. Trakic et al. MRI apparatus and method with moving field component. June 17, 2014.

United States Patent No. 8,330,952. Wu et al. Guided mode resonator-based Raman enhancement apparatus. December 11, 2012.

United States Patent No. 7,151,598. Poponin. Method and apparatus for enhanced nano-spectroscopic scanning. December 19, 2006.

United States Patent No. 5,719,499. Chandrakumar. Device for excitation and detection of magnetic resonance using orthogonal transmitter probe coils. February 17, 1998.

United States Patent No. 5,663,648. Chapman et al. Gradient coils having increased performance and decreased power consumption for use in MR systems. September 2, 1997.

United States Patent No. 5,293,120. Gentsch et al. Resonator for electron spin resonance spectroscopy. March 8, 1994.

Other articles of the issue

Tim Xia Awards from public academies as a driving force for innovation.
5 views
cc-license
About us Journals Books
Publication ethics Terms of use of services Privacy policy
Copyright 2013-2025 Premier Publishing s.r.o.
Praha 8 - Karlín, Lyčkovo nám. 508/7, PSČ 18600, Czech Republic pub@ppublishing.org