A device for inspecting containers which have an opening includes a transport device which transports the objects along a configured transport path. The device includes a monitoring device which is configured to monitor at least one region of an inner wall of the container through the opening. The monitoring device is configured to capture spatially resolved images, and has a lighting device configured to illuminate at least one region of the inner wall, is arranged between the monitoring device and the container.

A method and system for assessing the quality of at least one component of optical material which has at least one first center axis includes directing at least one light beam towards at least one detector device such that while changing the position and/or orientation of the component relative to the light beam, the light beam crosses at least from time to time the component and determining, with at least one determination device, at least one characterizing value of at least one figure of merit of the component based on analyzing, with at least one analyzing device, the dependency of a parameter of the light beam detected by the detector device on the position and/or orientation of the component.

An apparatus for inspecting containers and in particular cans, having an illumination device which illuminates the can to be inspected and radiates radiation onto an inner base wall of the container, and having an image recording device which records at least one spatially resolved image of the inner base wall illuminated by the illumination device is provided. The apparatus has a first polarization device in a beam path between a light source of the illumination device and the inner base wall in such a way that the radiation reaching the inner base wall is polarized, wherein the illumination device being designed in such a way that a predominant proportion of the radiation irradiated into the container by the illumination device reaches the inner base wall.

An objective lens is used for DNA sequencing. An example system includes a flow cell, the objective lens, and a camera. Light from the flow cell is imaged by the camera through the objective lens. The objective lens can provide a long working distance; a flat field curvature; a high numerical aperture; and/or a wide field of view.

This invention comprises a system and a method for inspecting the inside of delayed petroleum coking vessels to identify deformations, detect and determine the severity of other defects, and visually observe the inside of the inspected vessel.

Apparatus for inspecting containers, having a transport device which transports the containers along a predetermined transport path, and having an inspection device for inspecting the containers, wherein this inspection device has an image recording device which is configured for recording a spatially resolved image of a bottom of the container. The apparatus includes an image evaluation device which is configured for evaluating the image recorded up by the image recording device, wherein this image evaluation device enables a distinction between images of those containers which have foreign bodies in their interior and those containers which have foreign bodies on an outer surface of the bottom.

A system for detecting residue in a two-phase immersion cooling system based on changes in the intensity of energy reflected off a reflective surface. An energy source is positioned at an incident angle relative to a reflective surface and an intensity sensor is positioned at a target reflected energy angle relative to the reflective surface, wherein the intensity sensor detects light or other energy reflected off the reflective surface. If residues are deposited on the reflective surface, the reflectivity of the residue will change the reflected energy angle or otherwise change the amount of energy reflected toward the sensor. A heating element may generate more heat than existing components such that the system detects the presence of residues with sufficient time to allow less expensive and less intensive corrective measures.

A system for detecting residue in a two-phase immersion cooling system based on changes in the intensity of energy reflected off a reflective surface. An energy source is positioned at an incident angle relative to a reflective surface and an intensity sensor is positioned at a target reflected energy angle relative to the reflective surface, wherein the intensity sensor detects light or other energy reflected off the reflective surface. If residues are deposited on the reflective surface, the reflectivity of the residue will change the reflected energy angle or otherwise change the amount of energy reflected toward the sensor. A heating element may generate more heat than existing components such that the system detects the presence of residues with sufficient time to allow less expensive and less intensive corrective measures.

An umbilicus-driven centrifuge includes a yoke configured to orbit a midsection of the umbilicus around a rotational axis at a first speed so as to cause a separation chamber associated with the umbilicus to rotate about the rotational axis at a second speed that is approximately double the first speed. An optical monitoring system directly monitors the separation chamber, with a light source oriented to emit light toward the separation chamber and a light detector oriented to receive at least a portion of the light after the light has passed through the separation chamber. A controller receives a plurality of signals from the light detector, then compares the period or frequency of the signals to an expected period or frequency. The controller determines that the umbilicus is experiencing an irregularity when the period or frequency is different from the expected period or frequency.

This invention comprises a system and a method for inspecting the inside of delayed petroleum coking vessels to identify deformations, detect and determine the severity of other defects, and visually observe the inside of the inspected vessel.