Abstract: The invention relates to a subsampling system or method of a monophasic fluid (2) for the preparation of a gaseous subsample (2b). said subsampling system (1) comprising: a first inlet valve (11). an expandable cell (20). a second valve (41), and an expansion cell (40); said first inlet valve (11) being arranged so as to control the flow of the monophasic fluid to the expandable cell (20); said expandable cell (20) being arranged to allow the expansion of the monophasic fluid (2) until forming a diphasic fluid (2a) at a known pressure. volume and temperature. said diphasic fluid (2a) comprising a gas phase and a liquid phase: said second valve (41) being arranged so as to control the flow of the gas phase to the expansion cell (40); and said expansion cell (40) being arranged so as to contain the gaseous subsample (2b) of the monophasic fluid (2).

Abstract: The invention relates to a method (100) for determining a hydrocarbon-water contact position in a hydrocarbon reservoir, said method comprising the steps of:—Providing (110) at least two reservoir fluid samples collected, from connected hydrocarbon reservoir(s), at different known sampling depth values, —Measuring (120) abundance of at least one isotope of noble gas from each of the at least two reservoir fluid samples, and—Calculating (130) the hydrocarbon-water contact position in the hydrocarbon reservoir from the measured abundances and the known sampling depth values of the at least two reservoir fluid samples.

Abstract: The invention relates to a method (100) for determining a hydrocarbon-water contact position in a hydrocarbon reservoir, said method comprising the steps of: —Providing (110) at least two reservoir fluid samples collected, from connected hydrocarbon reservoir(s), at different known sampling depth values, —Measuring (120) abundance of at least one isotope of noble gas from each of the at least two reservoir fluid samples, and —Calculating (130) the hydrocarbon-water contact position in the hydrocarbon reservoir from the measured abundances and the known sampling depth values of the at least two reservoir fluid samples.

Abstract: In general, embodiments of the invention relate to processing data from (or associated with) containerized applications using a scalable processing infrastructure. More specifically, embodiments of the invention implement stackable scalable data proxy (SSDP) clients, each of which includes one or more proxy functions. The proxy functions are used to process the data. The processing may include, but is not limited to, modifying the data and/or analyzing the data and then taking an action(s) based on the analysis.

Abstract: In general, embodiments of the invention relate to processing data from (or associated with) containerized applications using a scalable processing infrastructure. More specifically, embodiments of the invention implement stackable scalable data proxy (SSDP) clients, each of which includes one or more proxy functions. The proxy functions are used to process the data. The processing may include, but is not limited to, modifying the data and/or analyzing the data and then taking an action(s) based on the analysis.