The duration spent on drilling is an essential element to be taken into account when exploring any hydrocarbon field as it is a direct reflection of the money spent. This article looks into Non-Performing Time events by discussing it from the sub-surface and surface scenarios, based on the analysis performed in 5 wells of the Volve Oilfield. ...
recorded for a well primarily depends on the purpose of the drilling activity. This article categorizes the log suits based on Exploratory drilling and Development drilling.
he Volve field is a 4-way dip closure with the Middle Jurassic Hugin Formation as reservoir. The geologic cross section is an important toot to understand the development of the producing Hugin formation across the Volve Oilfield.
The Volve oilfield has three types of Well completions designed with offshore completions: Oil production Wells, Water injection Wells and Water production Wells. The Wells are deviated and drilled from a single offshore
The Volve Oilfield Simulation model was build on a grid of 108x100x62 cells. The total number of cells in the model is 680400 and the number of active cells is 183,545.
PVT analysis of the Volve Oil field consists for four reports covering three wells. These reports cover Constant Mass Expansion, Differential Liberation, Separator tests and Compositions analysis. However, it is seen that none of the reports are complete in themselves
Production forecasting is one of the most difficult tasks in petroleum engineering. There various ways to predict future production, the more
The structure is adjacent to gas-condensate structures: Sleipner Vest, Loke and Sleipner Øst, justifying the need to understand the source of the oil reserves. Gas condensate is present in both Jurassic/Triassic Sandstone and the Heimdal formation of the Sleipner and Loke Structures.
The WITSML database may be used to calculate the Well deviation, Geomechanical analysis, Drilling operation activity analysis, Prediction of drilling issues
The simulator calculates the initial equilibrium state of the reservoir and defines the the pressure and saturations in each grid cell. For a reservoir with multi-phase fluid, the vertical pressure and saturation gradient can be determined from the contact depths, together with the capillary pressure at these depths.
