Abstract: A device includes at least one processor configured to partition a source image including image components into sub-images, each including a corresponding image component of the image components, and process each sub-image to produce a target image to be projected for each sub-image of the sub-images. The device also includes one or more light sources coupled to the at least one processor and configured to project an incident light, and a phase projection-based display device coupled to the at least one processor and optically coupled to the one or more light sources and configured to modulate, based on the target image of each sub-image, the incident light to separately project the sub-images.

Abstract: Technologies and implementations for facilitating monitoring and management of network devices are generally disclosed.

Abstract: Technologies and implementations for facilitating monitoring and management of network devices are generally disclosed.

Abstract: An instrument for suction and electrosurgery has an elongate body molded of a polymer. A main flow passage extends through the length of the body. A hollow metal aluminum tube extends from the body and attaches to electrosurgical power and is in fluid communication with the passage. The tube extends from the body to the patient passing energy thereto. An open distal end on the body receives the tube on a shelf thereacross to engage and hold the tube. The shelf has opposed tapered camming surfaces and an edge axially spaced proximally within the opened distal end. The edge engages with a spade connector on an insulated cable coupled to the power during insertion of the tube to fold back the spade connector as the tube is received.

Abstract: A method of destroying organic waste in a bath of molten metal and slag contained in a vessel (3) is disclosed. The method comprises injecting organic waste into the bath to form a primary reaction zone (13) in which the organic waste is thermally cracked and the products of the thermal cracking which are not absorbed into the bath are released into the space above the surface of the bath. The method further comprises injecting an oxygen-containing gas toward the surface of the bath to form a secondary reaction zone (17) in the space above the surface of the bath in which the oxidizable materials in the products from the primary reaction zone (13) are completely oxidized and the heat released by such oxidation is transferred to the bath.