Bio
Miguel Angel Perez Cisneros is a chemist and environmental engineer with a strong academic and professional background. He earned his degree in Chemistry from the Central University of Venezuela (UCV) in 1988, followed by a specialization in Industrial Economy from Universidad Santa María (USM), a Master's in Environmental Engineering from Universidad Católica Andrés Bello (UCAB), and a Doctorate in Sciences of Engineering from UCV. His research interests span analytical chemistry, environmental health, environmental monitoring and analysis, and environmental sciences. Dr. Perez Cisneros has contributed to the field with publications in both international and national journals, and has served as a reviewer for the Global Journal of Science Frontier Research (GJSFR). He has been involved in research projects related to drilling fluids, oil production, and environmental engineering, and has worked at Intevep, S.A., in Los Teques, Venezuela. His work includes proposals for accelerated evaporation treatment systems for industrial waste and the use of soda ash and sodium percarbonate for CO2 capture and phenol oxidation in water.
Educational Journey
Central University of Venezuela
Chemist • Chemistry
1988USM
Specialization in Industrial Economy • Industrial Economy
Universidad Católica Andrés Bello
Master in Environmental Engineering • Environmental Engineering
Experience
Intevep S.A.
0 - 0Editors Role
Reviewer
GJSFR
2018 -Research
A Proposal for an Accelerated Evaporation Treatment System for Alumina Industrial Soda Ash Wastes and Feasibility of the use Soda Ash and Sodium Percarbonate for Co2 Capture and Phenol Oxidation in Water
Increasing interest in CO2 sequestration is linked to the need for cost-effective alternatives of In Situ Combustion Pilot Projects (ISCPP) which is an ongoing field testing effort aimed at assessing its efficacy in increasing the recovery factor of heavy oil reservoirs from Hugo Chávez Orinoco Oil Belt (Venezuela). A proposal is presented for an accelerated evaporation system for volume decreasing of caustic liquor in alumina industrial artificial lagoons, obtaining sodium carbonate (soda ash) and its later utilization in the synthesis of sodium percarbonate (Na2CO3•1.5H2O2) (SPC). The caustic liquor evaporation rate was of 0.146 mm/h using only radiation in the evaporation system. When only artificial wind was used the e vaporation r ate w as 0 .196 m m/h, w hich means an increase of 34% in the evaporation rate. Results indicate that simultaneous application of radiation and wind into the evaporation panels allowed to attain a maximum caustic liquor evaporation rate of 0.302 mm/h, which represents an increase of 1 07% i n the e vaporation r ate. T he o btained s alt i s r ich i n sodium carbonate, which was used as raw material to accomplish SPC synthesis. The reaction was possible, with a yield o f 4 6.7% a nd S PC c ontent o f 6 8% f or e very 1 00 g o f sample obtained. SPC synthesis seems to be an alternative to waste disposal by adding value to caustic liquor.
