A system and a method for determining a sealant profile to be applied by a sealant applicator, the applicator being arranged to apply sealant to the surface of a component. The system includes an imager configured to generate measurement data representing the surface of the component and a data receiver. The data receiver is arranged to receive the generated measurement data and predetermined component-related data. The system also includes a processor arranged to analyse the received data and to generate, based on the analysis, a sealant profile for application to the component, and a data output arranged to output data representing the generated sealant profile to the sealant applicator.

A system and a method for determining a sealant profile to be applied by a sealant applicator, the applicator being arranged to apply sealant to the surface of a component. The system includes an imager configured to generate measurement data representing the surface of the component and a data receiver. The data receiver is arranged to receive the generated measurement data and predetermined component-related data. The system also includes a processor arranged to analyse the received data and to generate, based on the analysis, a sealant profile for application to the component, and a data output arranged to output data representing the generated sealant profile to the sealant applicator.

The present invention is of a system for inspection of containers, the system comprising: a chamber for accommodating a container, the chamber unlit and sealed to any external light; at least one light source configured to be positioned in the container to illuminate the interior of the container; and at least one light detection device disposed at the interior of the chamber and configured to detect light from the at least one light source, wherein the detected light is emitted from the container into the chamber; wherein the detected light is used to detect damage to the container.

The present invention relates to the field of biological sample testing technology, and in particular, to a biological sample reaction vessel. A reagent storage portion and a push rod movable relative to the reagent storage portion are packaged in the reaction vessel; the reagent storage portion comprises at least one reagent containing cavity, and the reagent containing cavity is sealed by a sealing element; and the push rod is connected to the sealing element, and the push rod is used for cooperation with an external device to separate the sealing element from the reagent storage portion. In this application, the reagent storage portion and the push rod are both packaged in the biological sample reaction vessel, and in reaction, the biological sample reaction vessel only needs to cooperate with a test cassette. With one operation, that is, inserting the biological sample reaction vessel into the external device, the reagent in the reagent storage portion can be released rapidly.

An automated device for determining the peel force to peel a lidding foil off of a top surface of a primary packaging shell comprises: a shell holder for holding the primary packaging shell to the top surface of which the lidding foil is sealed; a foil lifter for lifting a non-sealed end portion of the lidding foil up from the planar top surface of the primary packaging shell held by the shell holder; a foil gripper for grasping the lifted non-sealed end portion of the lidding foil; a foil peeler for peeling the sealed lidding foil with the lifted non-sealed end portion grasped by the foil gripper off of the planar top surface of the primary packaging; and a force sensor for determining the force required to peel the lidding foil off of the top surface of the primary packaging shell.