High-Pressure Foam Analysis: Targeted Enhancement of Foam-Aided Methods for Oil Production

World’s first measuring instrument for simultaneous analysis of foamability, foam stability, and foam structure under high pressure

5 Jul 2017
Abigail Berry
Administrator / Office Personnel

Product news

With its High-Pressure Foam Analyzer – HPFA, KRÜSS GmbH is launching the world’s first measuring instrument for the simultaneous capture of foam height and foam structure under high pressure.

The HPFA is intended primarily for the tertiary oil production sector, where foams boost the efficiency of flooding procedures using gases such as carbon dioxide or nitrogen. The foam improves flow control, so that the oil can be extracted efficiently from the rock. The foams used must remain stable for a long period under the high pressure of the reservoirs and withstand strong deformations during flows through porous rock. So, the structure of the foam lamellae and the decay dynamics at high pressure are extremely relevant for the efficiency of the process.

The HPFA is equipped with high-resolution cameras that capture the foam volume and a video image of the foam lamellae in parallel during and after foaming. With the aid of the ADVANCE software’s real-time image evaluation, the instrument measures the foamability and foam decay as well as changes in the absolute bubble size and its statistical distribution. The measuring cell of the HPFA operates at pressures up to 350 bar and temperatures up to 120 °C. During the analysis, sensors permanently transmit measured values for pressure and temperature to the software. The repeatability of foam formation is ensured by a filter through which the gas flows into the liquid under pressure. Variable filters with different pore sizes simulate the characteristic porosity of the respective rock and enable the modelling of foams with different bubble sizes. When using the foam in the recovery process the aqueous foam in the reservoir often comes up against the foam inhibiting oil. This can trigger undesired foam decay.

To date, it has not been possible to test this effect under reservoir conditions. To make this possible, the HPFA comes equipped with a novel dosing unit that enables the dosing of any kind of liquid under pressure during the ongoing foam analysis.

Find more information on KRUSS here.

Links

Tags

Solid-Phase ExtractionSolid-phase extraction (SPE) is used for clean-up, extraction and concentration of semi-volatile or non-volatile analytes from complex mixtures including blood, urine and food samples. Multiple formats are available for conducting SPE, including prepacked SPE cartridges, disks and microplates, as well as SPE sorbent powders for manual packing. SPE systems can be used to automate the process and extract multiple samples at once. Solid-phase microextraction (SPME) and supported liquid extraction (SLE) products are also available in the same formats. Find the best SPE, SLE and SPME equipment in our peer-reviewed product directory: compare products, check customer reviews and receive pricing direct from manufacturers.Surface Area TestingPhysisorption studies fundamental parameters essential for the characterization of materials such as the specific surface area and pore size distribution. Properties such as porosity, strength, hardness, permeability, separation selectivity, corrosion, and thermal stress resistance can all be directly correlated to the porous structure of a material.ProfilometersProfilometers are instruments used to measure a surface's profile, in order to quantify etch depth, deposited film thickness, and surface roughness. They operate in either contact or non-contact modes and may use optical or stylus techniques to make the actual measurements.HD ImagingCrude OilThe chemical evaluation of the complex combination of hydrocarbons and organometallic compounds found within crude oil. The results provide data on the chemical characteristics of a sample for petroleum testing laboratories.Surface Analysis
High-Pressure Foam Analysis: Targeted Enhancement of Foam-Aided Methods for Oil Production