Abstract: An optical fiber trunk cable breakout canister includes a main canister body, the main canister body extending between a first end opening and a second end opening and including a first end portion defining the first end opening and a second end portion defining the second end opening. The first end opening has a maximum width that is less than a maximum width of the second end opening. The breakout canister further includes a plate disposed within the second end portion. The breakout canister further includes a potting material disposed within the second end portion. The breakout canister further includes a retainer washer disposed within the main canister body.

Abstract: An optical fiber trunk cable breakout canister includes a main canister body, the main canister body extending between a first end opening and a second end opening and including a first end portion defining the first end opening and a second end portion defining the second end opening. The first end opening has a maximum width that is less than a maximum width of the second end opening. The breakout canister further includes a plate disposed within the second end portion. The breakout canister further includes a potting material disposed within the second end portion. The breakout canister further includes a retainer washer disposed within the main canister body.

Abstract: An optical fiber trunk cable breakout canister comprising a main canister portion having a first smaller end and a second larger end. A stop is defined at a predetermined axial distance from the second larger end. A nozzle plate is received in the second larger end of the main canister portion and engages the stop, the nozzle plate carrying a plurality of axial nozzles. The distance between the nozzle plate and the second larger end of the main canister portion is greater than the axial length of the nozzles. In this embodiment, potting material is located in the main canister portion so as to cover and seal ends of the nozzles.

Abstract: A computer-implemented method is provided for drawing a graph in which multiple nodes are connected by multiple edges. An image is displayed representing a node, and the image is processed to distinguish image foreground pixels and image background pixel. An edge is displayed incident to the node, the edge extending over selected background pixels and stopping short of selected foreground pixels. There results a graph drawing that is more aesthetically pleasing.

Abstract: A system and method for generating a GIS data transaction including information about a topography of a region and utilities within the region. The method and system include providing information about the topography of the region; receiving information about a user collecting data related to one or more utilities in the region; receiving information about time and date of the collected data; receiving information about each of the utilities; receiving information about location of each of the utilities; receiving information about the manner of collecting data; receiving information about revisions made to the information about the map; and integrating the received information with the information about the topography of the region into a GIS data transaction. The GIS data transaction may be used to generate a precision integrated grid and the precision integrated grid may be used to identify and locate a utility in the region.

Abstract: A method and apparatus, including software, for the development and operational use of precise utility location and utility asset management information. Field-usable data sets may be produced that meet standards of accuracy and usability that are sufficient for use by field operations personnel participating in damage prevention activities associated with ground penetrating projects (e.g., excavating, trenching, boring, driving, and tunneling) or other asset applications. Some embodiments relate to integrating utility asset data including coordinate location, and geographical information data using a consistently available and accurate coordinates reference for collecting the data and for aligning the geographical information data. Some embodiments relate to managing projects with equipment that provides real time images and the updating of the data as required with this desired accuracy.

Abstract: A method is provided in which particulate matter is dried in a high velocity cyclonic dryer having inner and/or outer ring deflectors. Contemplated initial air stream velocities are at least about 100 feet per second, with more preferred velocities at least 300 feet per second, and still more preferred embodiments at least 500 feet per second. In one aspect of preferred embodiments the combination of high velocity air flow and ring deflectors advantageously provides significant drying of the particulate matter using both relatively low temperatures and relatively short transit times. Contemplated temperatures of the air stream entering the dryer are between about 50.degree. F. and about 300.degree. F., with more preferred temperatures between about 60.degree. F. and about 150.degree. F., and still more preferred temperatures between about 70.degree. F. and about 120.degree. F.

Abstract: A method and apparatus for preparing an orthotic appliance to correct defects in a foot providing the steps of scanning a foot, creating a three-dimensional model of the corrected foot, milling a positive mold of the corrected foot, forming a uniformly thick orthotic material over the positive mold and milling out the bottom of the orthotic appliance. Also provided is a heel bisector for use in preparing an orthotic appliance.

Abstract: A method and apparatus for preparing an orthotic appliance to correct defects in a foot providing the steps of scanning a foot, creating a three-dimensional model of the corrected foot, milling a positive mold of the corrected foot, forming a uniformly thick orthotic material over the positive mold and milling out the bottom of the orthotic appliance. Also provided is a heel bisector for use in preparing an orthotic appliance.