Abstract: A glass container inspection system an inspection area disposed along a conveyor belt and a computing system. The conveyor belt moves a plurality of glass containers through the inspection area. The inspection area has a plurality of cameras and a plurality of light sources, and the computing system is in communication with the plurality of cameras. The plurality of cameras are configured to capture images of a finish of each of the glass containers as the glass containers move through the inspection area, and the plurality of light sources are configured to produce light proximate a field of view of each camera of the plurality of cameras. The computing system is configured to analyze the captured images and determine if the finish of each of the glass containers has a defect.

Abstract: A system, architecture and method for data handling, computation, and communication for Earth-based and space-based activities through the use of ground and space-based systems. The system architecture may include a Core Space Layer. The system architecture may further include an Earth User Layer, a Relay Layer, a Computing Layer, a Terrestrial Communications Layer, and a Space User Layer. The Computing Layer is a cloud-based architecture that serves to reduce bandwidth burdens on Earth-Space trunk by processing data into manageable streams of information. The Core Space Layer contains LEO satellites, one of which may act as a dedicated computing node. The Core Space Layer may operate in a public and/or private mode with a first constellation of LEO satellites operating in a private mode and a second constellation of LEO satellites operating in a public mode.

Abstract: An example of an apparatus is provided. The apparatus includes a feeder tank to provide print fluid to a nozzle. The feeder tank is disposed below the nozzle to maintain a backpressure. The apparatus also includes a vent port to vent the feeder tank to atmosphere. The apparatus further includes an overflow chamber in fluidic communication with the feeder tank. The overflow chamber is disposed below the nozzle. In addition, the apparatus includes a return channel disposed on the overflow chamber to allow print fluid in the overflow chamber to return to the feeder tank.

Abstract: An example of an apparatus is provided. The apparatus includes a main tank disposed above a nozzle. The main tank is to store a bulk amount of print fluid. The apparatus includes a feeder tank in fluidic communication with the main tank and the nozzle. The feeder tank is disposed below the nozzle to maintain a backpressure. The apparatus includes a vent port disposed on the feeder tank. The apparatus includes an exchange port connecting the main tank to the feeder tank. The exchange port allows print fluid to flow from the main tank to the feeder tank in response to a decrease in an amount of print fluid in the feeder tank relative to a threshold amount.

Abstract: An example of an apparatus is provided. The apparatus includes a feeder tank to provide print fluid to a nozzle. The feeder tank is disposed below the nozzle to maintain a backpressure. The apparatus also includes a vent port to vent the feeder tank to atmosphere. The apparatus further includes an overflow chamber in fluidic communication with the feeder tank. The overflow chamber is disposed below the nozzle. In addition, the apparatus includes a return channel disposed on the overflow chamber to allow print fluid in the overflow chamber to return to the feeder tank.

Abstract: An illustrative embodiment disclosed herein is an EMV certification system including a credit card simulator configured to program a probe with credit card data, a point of sale simulator configured to send transaction data to a payment terminal, a robotic arm configured to perform an action on the payment terminal, and a robot controller communicatively coupled to the robotic arm. The robot controller is configured to instruct the robotic arm to perform the action. The EMV certification system further includes a test coordinator communicatively coupled to the credit card simulator, the point of sale simulator, and the robot controller. The test coordinator is configured to request the robot controller instruct the robotic arm based on reading a response from the payment terminal.

Abstract: Apparatus and methods for determining suitable displacement fluids for use in subterranean formations are provided. One example of a method is a method for identifying an inverter fluid to use for inverting an oleaginous-external/aqueous-internal fluid in a subterranean formation.

Abstract: Apparatus and methods for determining suitable displacement fluids for use in subterranean cementing operations, and methods of cementing that use such displacement fluids, are provided. Examples of apparatus include apparatus for evaluating fluids. An example of a system is a system for inverting an oleaginous-external/aqueous-internal fluid in a well bore in a subterranean formation.

Abstract: Apparatus and methods for determining suitable displacement fluids for use in subterranean cementing operations, and methods of cementing that use such displacement fluids, are provided. Examples of methods include methods of water-wetting an annulus in a subterranean formation having an oleaginous-external/aqueous-internal fluid disposed on at least a portion of one or more surfaces of the annulus. Another example of a method is a method of using an inverter fluid in a subterranean formation that includes a tubular string disposed therein having an annular region adjacent the outer surface of the tubular string, at least part of the annular region having an oleaginous-external/aqueous-internal fluid on a surface thereof. Another example of a method of the present invention is a method of identifying an inverter fluid to use for inverting an oleaginous-external/aqueous-internal fluid in a subterranean formation.