Effects of miscible CO2 injection on production recovery

Carbon dioxide (CO2) injection is implemented into the reservoir to further improve the oil production efficiency, by mixing with oil at reservoir condition, and becomes miscible. The miscibility affects the oil to become swelled and less viscous and thus easily flow through the reservoir. Most of the (CO2) EOR projects has higher recovery factor in miscible condition. Therefore, this article aims to determine the effects of the miscible (CO2) injection on production recovery in the Cornea Field. The Cornea Field is located in Browse Basin, Western Australia. It is a simple trap structure which is elongated and formed by unfaulted drape anticline over an eroded high basement. The importance of this research is that (CO2) injection has not been implemented in the Cornea Field since it is a complex reservoir. However, research showed that there was a high potential production recovery in this field. Therefore, research needs to be conducted to determine the effectiveness of the (CO2) injection on production recovery in this field. The model was validated, by comparing MMP obtained from the simulation model and correlation methods. The MMP of this reservoir is above 38 Bar. Sensitivity analysis on reservoir pressure, reservoir temperature and (CO2) injection rate was investigated. Oil production increases with the increase in reservoir pressure and reservoir temperature. As the (CO2) injection rate increases, oil production also increased. From the result, hence, this study should contribute to the knowledge gap in Cornea Field.

Lipid coated liquid crystal droplets for the on-chip detection of antimicrobial peptides

Lipid coated liquid crystal droplets have been trapped in a novel trap structure for the on-chip detection of a model antimicrobial peptide – Smp43, an α-helical peptide from Scorpion Venom.

Exploring characteristics of the corner sections of a domain wall trap nanostructure with the two-field direction method

A domain wall trap structure which supports a reproducible wall motion using the two field direction method with variations of the two field orientation angles (±θ).

Field-driven single domain wall motion in ferromagnetic nanowires

A domain wall trap structure was found which is suitable for the field-driven single DW propagation between two narrow nanowires.