Abstract: Provided are a recirculation system (200) for a material removal machine (102) and a material removal system (100). A material removal system (100) includes a recirculation system (200) in fluid communication with a material removal cabinet (104) housing a material removal machine (102). The recirculation system (200) may have an upper reservoir (300) configured to drain fluid into a lower reservoir (204) before recirculating the fluid. The upper reservoir (300) may have a standpipe (320) configured to allow swarf, debris, and/or other material within the fluid to be entrained prior to flowing over the standpipe (320).

Abstract: The present invention relates to an electrode unit (10, 20) for an electric vacuum capacitor comprising a band-shaped capacitor plate (11, 21) with a height H, wherein the band-shaped capacitor plate (11, 21) is wound in a spiral with a maximum diameter Dmax and a constant distance between successive turns, wherein the band-shaped capacitor plate (11, 21) comprises a first longitudinal edge (11a, 21a) attached to a supporting part (12) and a second longitudinal edge (11b, 21b), the second longitudinal edge (11b, 21b) being free, wherein at the outer extremity of the spiral, the first longitudinal edge (11a, 21a) and the second longitudinal edge (11b, 21b) are connected by an inclined edge (11c, 21c) such that the first longitudinal edge (11a, 21a) is longer than the second longitudinal edge (11b, 21b), wherein the inclined edge (11c, 21c) forms with the longitudinal axis (B) of the band-shaped capacitor plate (11, 21) an angle ? less than or equal to an angle ?max=(45°·?/180°).

Abstract: A Multi-Z confocal microscopy system can simultaneously record from multiple Z-sections, and thus performs high speed volumetric imaging. An illumination line can be formed by under-filling the illumination beam in the aperture of the microscope objective. The illumination line extends in the Z dimension into the target sample to be imaged and an X-Y scanning mechanism can be used to scan the illumination line over the sample. The detection signal emanating from the scanned sample can be collected through the full numerical aperture of the microscope objective and directed to a detector subsystem. The detector subsystem includes an array of reflecting pinhole detectors and each reflecting pinhole detector is configured to image a volume at a different depth in the sample. This configuration enables reflecting pinhole detector array to image more than one depth volume at the same time.

Abstract: Techniques to facilitate obtaining feedback for an application associated with an industrial automation environment are disclosed herein. In at least one implementation, a graphical user interface (GUI) is displayed on a display system of a computing system, wherein the GUI includes primary content and a user feedback prompt, and the primary content is displayed on a majority of the display system. Responsive to a user selection of the user feedback prompt, the GUI is expanded to reveal a feedback area on the display system that provides a mechanism to receive user feedback. User input comprising the user feedback is then received. Responsive to receiving the user feedback, the GUI is contracted to conceal the feedback area on the display system.

Abstract: A Multi-Z confocal microscopy system can simultaneously record from multiple Z-sections, and thus performs high speed volumetric imaging. An illumination line can be formed by under-filling the illumination beam in the aperture of the microscope objective. The illumination line extends in the Z dimension into the target sample to be imaged and an X-Y scanning mechanism can be used to scan the illumination line over the sample. The detection signal emanating from the scanned sample can be collected through the full numerical aperture of the microscope objective and directed to a detector subsystem. The detector subsystem includes an array of reflecting pinhole detectors and each reflecting pinhole detector is configured to image a volume at a different depth in the sample. This configuration enables reflecting pinhole detector array to image more than one depth volume at the same time.

Abstract: Techniques to facilitate obtaining feedback for an application associated with an industrial automation environment are disclosed herein. In at least one implementation, a graphical user interface (GUI) is displayed on a display system of a computing system, wherein the GUI includes primary content and a user feedback prompt, and the primary content is displayed on a majority of the display system. Responsive to a user selection of the user feedback prompt, the GUI is expanded to reveal a feedback area on the display system that provides a mechanism to receive user feedback. User input comprising the user feedback is then received. Responsive to receiving the user feedback, the GUI is contracted to conceal the feedback area on the display system.

Abstract: A system for imaging a substrate can comprise an image data source, an electromagnetic radiation source operatively connected to the image data source and configured to emit electromagnetic radiation in accordance with information provided by the image data source, and a DBR film applied to a substrate. The DBR film can comprise two types of film layers, wherein the two types of film layers are each stable at ambient temperature, each of the two types of film layers having a glass transition temperature (TG) that is lower than the temperature needed to produce deformation of bulk material of the two types of film layers upon interaction with the electromagnetic radiation.

Abstract: Systems and methods for printing on a print medium having a light-sensitive labeling layer are disclosed. The system includes a light source adapted to generate a light beam and a reflective surface adapted to deflect the light beam from the light source to a light-sensitive labeling layer of a print medium. The reflective surface is further adapted to rotate to cause the light beam to scan a scan region of the labeling layer. The light beam is adapted to activate the light-sensitive labeling layer of the print medium by causing a chemical change in the light-sensitive labeling layer to form an image.

Abstract: Pillars are formed in a fully integrated thermal inkjet printhead to prevent particles from entering into a nozzle chamber along an ink refill channel. The pillars are formed after a step of applying a thin film structure to a substrate. At one step, pits are etched through the thin film structure. At another step, material for an orifice layer is deposited into the pits. At another step, a firing chamber is etched into the orifice layer. At another step, a trench is etched into the backside of the wafer in the vicinity of the filled pits. The material filling each pit is not removed and remains in place to define the respective pillars. Two or more pillars are formed within the trench for each inkjet nozzle chamber. Alternatively pillars are formed by depositing material into the underside trench and performing photoimaging processes.

Abstract: A display device includes a base and light valve components formed over the base. The base includes electrical circuitry. Each of the light valve components includes a chamber that defines an optical path, particles within the chamber, and a mechanism for transversely repositioning the particles in relation to the optical path in response to voltages provided by the electrical circuitry.

Abstract: A printhead for an inkjet printer utilizes an orifice plate having at least two ink ejection orifices associated with one ink firing chamber so that both orifices eject ink. These orifices are manufactured to be non-circular and opposite each other about a midpoint between them.