Evaluation of Inflow Control Device Performance using Computational Fluid Dynamics
- M. Miersma (University of Alberta) | M. Mahmoudi (RGL Reservoir Management) | V. Fattahpour (RGL Reservoir Management) | L. Li (University of Alberta) | C. F. Lange (University of Alberta)
- Document ID
- Society of Petroleum Engineers
- SPE Canada Heavy Oil Technical Conference, 13-14 March, Calgary, Alberta, Canada
- Publication Date
- Document Type
- Conference Paper
- 2018. Society of Petroleum Engineers
- 2.3 Completion Monitoring Systems/Intelligent Wells, 5.4.6 Thermal Methods, 2.3.3 Inflow Control Equipment, 2 Well completion, 2.1.3 Completion Equipment, 1.8 Formation Damage
- Inflow Control Device, Computational Fluid Dynamics, Slotted liner, Thermal production
- 5 in the last 30 days
- 179 since 2007
- Show more detail
- View rights & permissions
|SPE Member Price:||USD 8.50|
|SPE Non-Member Price:||USD 25.00|
In steam injection thermal recovery, it is essential to have a uniform flow to improve the recovery and to avoid the localized steam breakthrough which could lead to damage to well completion. In this paper, we propose three quantitative criteria to assess the performance of inflow control devices (ICD) based on computational fluid dynamics (CFD) modeling. The new performance criteria are exemplified in the evaluation of a few basic ICD designs.
To evaluate the response of the ICD to flow rate and fluid type, three new performance criteria, defined as (1) quadratic flow coefficient, (2) viscosity coefficient, and (3) erosion potential, are proposed and evaluated based on a set of CFD simulations. The first criterion measures the flow rate response and the ability of the ICD to restrict high velocity flow, the second quantifies the viscosity sensitivity, and the third predicts the potential for erosion in the device.
Four different liner deployed ICD designs, based on two passive design types (nozzle and channel) and one autonomous design type (Tesla flow diode), were analyzed using a rigorous CFD model. The model includes the surrounding slotted liner and inner tubing to identify any interactions of the ICD with the surrounding completion. The CFD model has been verified for grid and domain independence and it was applied to a range of flow rates representative of the field condition. In addition, simulations were run for a range of single-phase incompressible fluids with varying viscosities.
Using the newly proposed criteria, the ICDs were evaluated and compared. The comparison shows that, of these devices, the diode does the best job of restricting the flow at high flow speeds and low viscosities. At high viscosities, such as in the case of oil, the diode is the least restrictive device. Although the two straight nozzles tested are slightly worse at restricting the flow, they have the lowest erosion potential. Based on this comparison and the proposed criteria, the channel design performs poorly. At low viscosities it does not sufficiently restrict the flow, and at high viscosities it overly restricts the production of oil. It also has a high erosion potential, because of the steep entrance angle.
In this work, a new set of quantifiable criteria are defined and assessed that allow multiple aspects of different ICD designs to be compared simultaneously. Overall, these three criteria give a highly sensitive, quantitative means of comparing ICD designs. With these three criteria together, a more comprehensive comparison can be made in support of selection and improvement of ICDs.
|File Size||1 MB||Number of Pages||15|
Aadnoy, Bernt S. and Geir Hareland 2009. Analysis of inflow control devices. Presented at the Offshore Europe Oil and Gas Conference and Exhibition 2009, Aberdeen, UK, 8-11 September. SPE-122824-MS. http://dx.doi.org/10.2118/122824-MS.
Banerjee, Sudiptya, Tarik Abdelfattah and Hang Nguyen 2013. Benefits of passive inflow control devices in a sagd completion. Presented at the SPE Heavy Oil Conference, Calgary, Alberta, Canada. 11-13 June. SPE-165478-MS. http://dx.doi.org/10.2118/165478-MS.
Coronado, Martin P., Luis Garcia, Ronnie Russell. 2009. New inflow control device reduces fluid viscosity sensitivity and maintains erosion resistance. Presentation at the Offshore Technology Conference, Houston, Texas, USA, 4–7 May, OTC-19811-MS. http://dx.doi.org/10.4043/19811-MS.
Jones, Colin, Morgan, Quentin, Beare, Steve. 2009. Design, testing, qualification and application of orifice type inflow control devices. Presented at the International Petroleum Technology Conference, Doha, Qatar, 7-9 December, IPTC-13292-MS. http://dx.doi.org/10.2523/IPTC-13292-MS.
Lauritzen, J. E. and Ingvild Berg Martiniussen 2011. Single and multi-phase flow loop testing results for industry standard inflow control devices. Presented at the Offshore Europe Oil and Gas Conference and Exhibition, Aberdeen, UK, 6-8 September, SPE-146347-MS. http://dx.doi.org/10.2118/146347-MS.
Olsen, J. J., Hemmingsen, Casper S., Bergmann, Line. 2017. Characterization and erosion modeling of a nozzle-based inflow-control device. SPE Drill & Compl. SPE-186090-PA (in press; posted may 2017) http://dx.doi.org/10.2118/186090-PA.
Oyeka, Onyema, Felten, Frederic, Least, Brandon. 2014. Screen-inflow-design considerations with inflow control devices in heavy oil. Presented at the SPE Heavy Oil Conference, Calgary, Alberta, Canada, 10-12 June, SPE-170097-MS. http://dx.doi.org/10.2118/170097-MS.
Zeng, Quanshu, Wang, Zhiming, Yang, Gang. 2013. Selection and optimization study on passive inflow control devices by numerical simulation. Presented at the SPE Intelligent Energy International 2013, Dubai, United arab emirates, 28-30 October, SPE-167443-MS. http://dx.doi.org/10.2118/167443-MS.