Abstract: Described are flow electrochemical cells and systems using flow electrochemical cells that carry simultaneous CO2 capture and electrical energy storage. The flow electrochemical cells comprise a negative electrode configured to be in fluid communication with alkaline negative electrolyte, a positive electrode configured to be in fluid communication with acidic positive electrolyte, a first ion-exchange membrane in contact with the negative electrode, a second ion-exchange membrane in contact with the positive electrode, and an inert intermediate neutralyte layer between the first ion-exchange membrane and the second ion-exchange membrane.

Abstract: Described are flow electrochemical cells and systems using flow electrochemical cells that carry simultaneous CO2 capture and electrical energy storage. The flow electrochemical cells comprise a negative electrode configured to be in fluid communication with alkaline negative electrolyte, a positive electrode configured to be in fluid communication with acidic positive electrolyte, a first ion-exchange membrane in contact with the negative electrode, a second ion-exchange membrane in contact with the positive electrode, and an inert intermediate neutralyte layer between the first ion-exchange membrane and the second ion-exchange membrane.

Abstract: Described are flow electrochemical cells and systems using flow electrochemical cells that carry simultaneous CO2 capture and electrical energy storage. The flow electrochemical cells comprise a negative electrode configured to be in fluid communication with alkaline negative electrolyte, a positive electrode configured to be in fluid communication with acidic positive electrolyte, a first ion-exchange membrane in contact with the negative electrode, a second ion-exchange membrane in contact with the positive electrode, and an inert intermediate neutralyte layer between the first ion-exchange membrane and the second ion-exchange membrane.

Abstract: This disclosure relates generally to information life cycle management, and more particularly to system and method for providing autonomous contextual information life cycle management. In order to visualize the data, initially, textual interaction may be captured from a social-networking platform. Upon capturing, business entities may be identified from the textual interaction. Subsequently, a system entity corresponding to each business entity may be identified. Subsequently, a key-value pair having a pre-defined condition corresponding to each system entity may be generated. Further a query may be generated based on the key-value pair. Upon generating the query, a context may be derived associated to the textual interaction. Based on the context and the query, data may be extracted from a data repository. Subsequent to the extraction of the data, the data may be visualized in a graphical form using one or more predefined visualization templates.