A glass vial illumination and inspection system may be provided with a light source and a stand. The stand may have an internal cavity configured to receive at least a portion of the light source. A recess may be located in the stand and configured to receive at least a portion of a glass vial. The stand may be configured to aim the light output from the light source toward the glass vial to illuminate the vial. The stand may be configured to position the vial such that an inspector can manually inspect the illuminated vial for defects. Methods of use are also disclosed.

Provided are methods of assessing the cleanliness of a flow cell of a flow cytometric system. The provided methods include computing a ratio of post-flow cell and pre-flow cell light beam intensities and using such a ratio to assess the cleanliness of the flow cell. Flow cytometric systems capable of monitoring the cleanliness of a flow cell contained within the system are also provided.

Aspects of the present disclosure include methods for detecting events in a flow cytometer. Also provided are methods of detecting cells in a flow cytometer. Other aspects of the present disclosure include methods for determining a level of contamination in a flow cell. Computer-readable media and systems, e.g., for practicing the methods summarized above, are also provided.

An infrared (IR) imaging system for determining a concentration of a target species in an object is disclosed. The imaging system can include an optical system including a focal plane array (FPA) unit behind an optical window. The optical system can have components defining at least two optical channels thereof, said at least two optical channels being spatially and spectrally different from one another. Each of the at least two optical channels can be positioned to transfer IR radiation incident on the optical system towards the optical FPA. The system can include a processing unit containing a processor that can be configured to acquire multispectral optical data representing said target species from the IR radiation received at the optical FPA. One or more of the optical channels may be used in detecting objects on or near the optical window, to avoid false detections of said target species.

An apparatus, designed and configured for optically inspecting articles of the fish and meat processing industry, includes at least one imaging system which is arranged so as to be encapsulated on all sides in a housing and is configured for optically scanning the articles. The housing has a transparent viewing window and a protective element, forming a light-transmissive channel, and is releasably arranged on the outside of the housing to protect the viewing window from contamination. In addition, an arrangement for processing and inspecting the opened abdominal cavity of gutted fish, includes a conveying device configured for conveying the fish along a processing line in the longitudinal direction, which is characterised in that the arrangement comprises at least one apparatus configured for optically inspecting the abdominal cavity.

Aspects of the present disclosure include methods for detecting events in a flow cytometer. Also provided are methods of detecting cells in a flow cytometer. Other aspects of the present disclosure include methods for determining a level of contamination in a flow cell. Computer-readable media and systems, e.g., for practicing the methods summarized above, are also provided.

A sensing system and method is provided for crop material in a harvester. The sensing system includes a conveyor auger device oriented in a substantially vertical direction and having an entrance aperture, an exit aperture located upwardly above a radially oriented sensing aperture disposed therebetween. The conveyor auger device includes a conveyor auger having a flight for moving crop material upwardly, wherein the flight has a reduced radial extension adjacent the sensing aperture. A sensor disposed at or adjacent the sensing aperture senses the essentially continuously upwardly moving crop material for determining a property thereof.

Provided are methods of assessing the cleanliness of a flow cell of a flow cytometric system. The provided methods include computing a ratio of post-flow cell and pre-flow cell light beam intensities and using such a ratio to assess the cleanliness of the flow cell. Flow cytometric systems capable of monitoring the cleanliness of a flow cell contained within the system are also provided.

A computer in a vehicle includes a processor is programmed to detect an object proximate to the vehicle. The processor is further programmed to activate at least one of a plurality of cameras from a deactivated state and operate the vehicle according to an object type determined with data from the at least one of the cameras.

In an imaging device, and an operation method and an imaging control program of the imaging device, it is possible to acquire a captured image by suppressing a decrease in image quality caused by droplets attached to a container. Before a heating unit heats a container in which an observation target is housed, and an imaging unit performs main imaging for the observation target housed in the container, a pre-measurement unit measures brightness of light transmitting through or reflected by the container. In a case where a value of the brightness measured by a pre-measurement unit is smaller than a standard value set in advance, the control unit causes the imaging unit to perform the main imaging after droplets attached to the container are removed by increasing a temperature of the container by the heating unit or by keeping the temperature of the container constant by the heating unit.