Chemical Fixation of \(CO_2\) Using NaOH and \(CaCl_2\): An Innovative Approach for \(CO_2\) Capture |Chapter 5 | Recent Developments in Chemistry and Biochemistry Research Vol. 6

Carbon dioxide (CO₂) emissions pose a significant challenge for climate change mitigation. This study addresses the need for effective CO₂ capture methods by introducing an innovative approach utilizing NaOH and CaCl₂ for CO₂ fixation. The objective was to develop a cost-effective and practical solution for capturing CO₂ from industrial and atmospheric sources. The experimental results demonstrated that this method effectively captures and converts CO₂ into CaCO₃, a stable and environmentally benign compound. The process was shown to be efficient in various conditions, including high CO₂ concentrations. The findings suggest that this approach could be integrated into existing systems to enhance CO₂ capture and contribute to climate change mitigation strategies.

 

Author (s) Details

Kenji Sorimachi
Bioscience Laboratory, Environmental Engineering, Co., Ltd., 1-4-6 Higashi-Kaizawa, Takasaki, Gunma 370-0041, Japan.

Please see the book here:- https://doi.org/10.9734/bpi/rdcbr/v6/2145

Digital Monitoring and Information System Regarding the Operational Safety of CO2 Storages | Chapter 2 | Current Overview on Science and Technology Research Vol. 4

 The author and a team are a part of a global effort to create a programmable system for monitoring CO2 deposits.

By developing and demonstrating a digital monitoring early-warning system that is societally embedded, intelligent, reasonably priced, and capable of monitoring any subsurface barrier system and CO2 storage reservoir, the DigiMon project's overall objective is to significantly speed up the implementation of carbon capture technology. The objective is to create and integrate distributed fiber-optic sensing technology, seismic point sensors, and gravimetric data with tried-and-true Ethernet-based digital communication, near-real-time, web-based smart data processing software, and knowledge of the social partners in the potential risk area. The component blocks of the system will be discussed in this paper. The system will be made interchangeable and adaptable with reference to the environment (offshore or onshore) and new system components provided via market-driven technology development. Any Carbon Capture System (CCS) project must include measurement, monitoring, and verification (MMV). MMV must demonstrate that projects are planned and executed in a manner that is both cost-effective and seen favourably by society. With a focus on information sharing with the general public and decision-makers, it also ensures safety and security. These articles outline the programmes and system functions for digitally integrated CO2 storage monitoring.

Author(s) Details:

Gabriel Vladut,
Sedona, Craiova, Romania.

Please see the link here: https://stm.bookpi.org/COSTR-V4/article/view/8280