Abstract: A well testing device for conducting well test operations on an oil, gas, or water well including a production flowline. A conduit guides fluids from the production flowline to the well test device and then back to the flowline. The well test device may include, in various combinations, one or more of a flow measurement device, a sampling device, a sampling chamber to collect sampled fluids from the production flowline, a particle separator, a particle detector, a pressure sensor, a temperature sensor, a controller or data storage module, a choke, and other components.

Abstract: An apparatus and system for passively sampling production fluid from a well is presented. The passive sampling device is used to split two-phase flow and provide a driving pressure differential for a sampling system. Flow through sampling systems require a low pressure differential to be utilized to take a liquid sample, so that the sample retained remains isobaric. When performed in two-phase flow, the pressure differential needs to be relatively high, potentially yielding a non-isobaric sample. By separating out the liquid content of the flow, a low driving pressure is allowed to be used. Thus, this keeps the sample isobaric at a wide range of production flow rates.

Abstract: A well testing device for conducting well test operations on an oil, gas, or water well including a production flowline. A conduit guides fluids from the production flowline to the well test device and then back to the flowline. The well test device may include, in various combinations, one or more of a flow measurement device, a sampling device, a sampling chamber to collect sampled fluids from the production flowline, a particle separator, a particle detector, a pressure sensor, a temperature sensor, a controller or data storage module, a choke, and other components.

Abstract: A sampling assembly for taking single or multiphase production fluid samples from a subsea well. The sampling assembly includes a receiving structure that houses a saver sub and a retrievable skid. The sampling assembly allows for repeated retrieval of collected samples and replenishment of empty sample chambers using the retrievable skid. A releasable connection interface between the retrievable skid and the saver sub allows an ROV to connect the retrievable skid to the saver sub and provide electrical and hydraulic power to the sampling assembly for taking samples.

Abstract: An apparatus and system for passively sampling production fluid from a well is presented. The passive sampling device is used to split two-phase flow and provide a driving pressure differential for a sampling system. Flow through sampling systems require a low pressure differential to be utilized to take a liquid sample, so that the sample retained remains isobaric. When performed in two-phase flow, the pressure differential needs to be relatively high, potentially yielding a non-isobaric sample. By separating out the liquid content of the flow, a low driving pressure is allowed to be used. Thus, this keeps the sample isobaric at a wide range of production flow rates.

Abstract: A sampling assembly for taking single or multiphase production fluid samples from a subsea well. The sampling assembly includes a receiving structure that houses a saver sub and a retrievable skid. The sampling assembly allows for repeated retrieval of collected samples and replenishment of empty sample chambers using the retrievable skid. A releasable connection interface between the retrievable skid and the saver sub allows an ROV to connect the retrievable skid to the saver sub and provide electrical and hydraulic power to the sampling assembly for taking samples.

Abstract: A three port vortex container to collect liquid samples from the production flow line of an oil reservoir. The device includes a three port vortex container used to separate the gas and liquid phases from a multiphase production flow. Multiphase flow is received by the container, inducing a vortex where the gas and liquid phases are separated due to their varying densities. The device further includes a sampling system where a pressurizing device is used to create a pressure differential across the sampling circuit, directing a fluid flow into the three vortex container. The liquid flow is then directed into a sampling container.

Abstract: The reversible rearview mirror has a mirror plate (1); a housing (2) which houses the mirror plate, both the mirror (1) and the housing (2) being symmetrical with respect to a horizontal axis (X); a supporting member (3) which is semirigid so as to be bendable when its ends are pressed toward each other in an axial direction; and a base (6) fixed to a vehicle body and on which the supporting member (3) is pivotally mounted and an attachment device for assembling and attaching the housing (2) to the supporting member (3) which is provided between the housing (2) and the supporting member (3). The attachment device includes two L-shaped clamps (4) which extend perpendicularly from respective outside regions of a lateral portion (10) of the supporting member (3) which receives the housing (2); and respective grooves (5) provided in a lateral portion (11) of the housing (2), adjacent to the lateral portion (10) of the supporting member (3), which receive the respective L-shaped clamps (4).