Abstract: A multiple conductor optical cable may be coupled to an undersea device, such as a cable joint, branching unit, or repeater, with one or more isolated bypass conductive paths being provided across the undersea device. At least one conductor may be terminated within a housing of the undersea device and at least one conductor may be coupled to a conductive bridge member that provides the isolated bypass conductive path across the device. Multiple conductor optical cables may be coupled to undersea devices in optical networks using independent power paths, for example, to deliver power to different powered components at different voltage potentials.

Abstract: A multiple conductor optical cable may be coupled to an undersea device, such as a cable joint, branching unit, or repeater, with one or more isolated bypass conductive paths being provided across the undersea device. At least one conductor may be terminated within a housing of the undersea device and at least one conductor may be coupled to a conductive bridge member that provides the isolated bypass conductive path across the device. Multiple conductor optical cables may be coupled to undersea devices in optical networks using independent power paths, for example, to deliver power to different powered components at different voltage potentials.

Abstract: Liquid formulations of celecoxib have been found to provide faster pain relief than conventional solid formulations of celecoxib. The present invention provides combinations of excipients in which celecoxib is highly soluble for formulation as pharmaceutical compositions.

Abstract: A quantitative measure of emergency department (“ED”) crowding and busyness is provided to ED staff and physicians substantially in real time. Further, the present invention enhances patient safety and improves quality of care by alerting ED personnel to of crowding, who are able to prevent adverse outcomes typically caused by ED crowding.

Abstract: An apparatus for retaining and protecting spliced optical fibers. Optical fibers forming an extensive network, extending a great distance, are spliced together to provide the communication medium for the network. The apparatus includes a joint box for protecting the splices. Within the joint box is at least one arcuate-shaped splice retainer. The retainer secures the splices in a static position to prevent them from being damaged. Also, the retainer may include more than one arcuate layers for storing the splices. The arcuate layers organize the splices, so they are readily identifiable and accessible. In addition, the arcuate layers make efficient use of the limited space available for storing the splices. The joint box includes a center shelf longitudinally dividing the joint box into two compartments. To accommodate more splices, an arcuate retainer may be provided in each compartment by mounting an arcuate retainer on each side of the shelf.

Abstract: A system which performs a plurality of independent analysis procedures simultaneously, possibly involving differing types of tissues and differing process steps, comprising a robotic arm, which may move the different tissue samples among the plurality of processing stations, and a processor, which may select the order, timing and location of the tissue sample. The robotic device may comprise a bench robot with rectilinear motion or a rotatable tower. The processing stations may be disposed in a set of grid locations, which comprise workstations for performing individual steps of the procedures. In response to timing information about the procedures, the processor may select the sample to be moved.

Abstract: An apparatus for retaining and protecting spliced optical fibers that are part of cables that have ultra-high strength steel wires, in which the optical fibers are free to move within a sleeve inside of the wires. The apparatus includes ajoint box having opposing longitudinal cable termination ends. The high-strength steel wires of each cable are attached to a respective cable termination end. At least one optical fiber from each cable extends through its respective cable termination end and is spliced together to form a continuous optical fiber. The fiber or fibers are splinted and potted at locations longitudinally spaced from the splice to form ferrules. A central portion or shelf of the joint box includes fiber retaining devices which take the form of ferrule retainer assemblies. The ferrule retainer assemblies have a trough that contains and restrains a respective ferrule.

Abstract: An apparatus for retaining and protecting spliced optical fibers. Optical fibers forming an extensive network, extending a great distance, are spliced together to provide the communication medium for the network. The apparatus includes a joint box for protecting the splices. Within the joint box is at least one arcuate-shaped splice retainer. The retainer secures the splices in a static position to prevent them from being damaged. Also, the retainer may include more than one arcuate layers for storing the splices. The arcuate layers organize the splices, so they are readily identifiable and accessible. In addition, the arcuate layers make efficient use of the limited space available for storing the splices. The joint box includes a center shelf longitudinally dividing the joint box into two compartments. To accommodate more splices, an arcuate retainer may be provided in each compartment by mounting an arcuate retainer on each side of the shelf.

Abstract: An apparatus for retaining and protecting spliced optical fibers that are part of cables that have ultra-high strength steel wires, in which the optical fibers are free to move within a sleeve inside of the wires. The apparatus includes a joint box having opposing longitudinal cable termination ends. The high-strength steel wires of each cable are attached to a respective cable termination end. At least one optical fiber from each cable extends through its respective cable termination end and is spliced together to form a continuous optical fiber. The fiber or fibers are restrained at locations on the continuous optical fiber spaced from the splice by winding portions of the fibers around a friction imparting element, such as a drum, that includes a curved outer surface. Tension forces applied to the fiber or fibers are transferred to the drum.

Abstract: A method and device for remotely analyzing an agent dispersed in the atmosphere is disclosed in which a body is dispensed into a volumetric region of the atmosphere overlapping the region containing the agent. The body is tailored to induce changes in an electromagnetic response of the volumetric region including the agent due to body the reactive probe and the agent. By sensing electromagnetic radiation from the region, information may be gained concerning the agent based upon the new electromagnetic response of the volumetric region induced by the reactions. Since a probe is used, source need not be known, and the electromagnetic signature may be tailored to atmospheric and device limitations.

Abstract: A system which performs a plurality of independent analysis procedures simultaneously, possibly involving differing types of tissues and differing process steps, comprising a robotic arm, which may move the different tissue samples among a plurality of processing stations, and a processor, which may select the next tissue sample to move, when to move it, and where to move it to. The processor may direct the robotic arm to interleave the differing process steps. The processor may select a tissue sample to be moved in response to timing information about the procedures, which may specify the start time and end time of each process step. The specified times may be exact or may be a range of times. The processor may determine the exact time for a step by generating a possible sequence of steps and examining that sequence for conflicts, adjusting that sequence in response to those steps with a specified range of times, and iterating the calculation over a plurality of possible sequences.

Abstract: A system which performs a plurality of independent analysis procedures simultaneously, possibly involving differing types of tissues and differing process steps, comprising a robotic arm, which moves the different tissue samples among a plurality of processing stations, and a processor, which selects the next tissue sample to move, when to move it, and where to move it to. The processor directs the robotic arm to interleave the differing process steps. The processing stations comprise workstations for performing individual steps of the tissue assay procedures, such as solution trays. The processor selects a tissue sample to be moved in response to timing information about the procedures. While the processor is directing the robotic arm to move, the processor monitors progress information and can alter the sequence of process steps in response to the progress information and information from an operator.

Abstract: A system which performs a plurality of independent analysis procedures simultaneously, possibly involving differing types of tissues and differing process steps, comprising a robotic arm, which may move the different tissue samples among the plurality of processing stations, and a processor, which may select the order, timing and location of the tissue sample. The robotic device may comprise a bench robot with rectilinear motion or a rotatable tower. The processing stations may be disposed in a set of grid locations, which comprise workstations for performing individual steps of the procedures. In response to timing information about the procedures, the processor may select the sample to be moved.

Abstract: A system for performing a plurality of independent analysis procedures simultaneously, each procedure having a sample and at least one process step for operating on that sample the system having a robotic device for moving a sample among a plurality of processing stations where the robotic device comprises substrate to which are coupled a plurality of tiles each one of the tiles disposed at a selected location on the substrate; a plurality of reagent trays coupled to the tiles, each one of the reagent trays having substantially identical shape and size; a robotic arm disposed for reaching substantially all the tiles; and capable of coupling and decoupling from a sample holder, the sample holder capable of holding at least one sample in a selected position, whereby the robotic arm is capable of moving the sample from a first one of the reagent trays to a second one of the reagent trays; and a processor for selecting, at a plurality of times a sample to be moved, and for directing the robotic arm to move the sa

Abstract: A system for performing a plurality of independent analysis procedures simultaneously, each the procedure having a sample and at least one process step for operating on that sample the system having a robotic device for moving sample among a plurality of processing stations where the robotic device comprises substrate to which are coupled a plurality of tiles each one of the tiles disposed art a selected location on the substrate; a plurality of reagent trays coupled to the tiles each one of the reagent trays having substantially identical shape and size; a robotic arm disposed for reaching substantially all the tiles; and comprising means for coupling and decoupling from a sample holder, the sample holder having a means for holding at least one sample in a selected position, whereby the robotic arm is capable of moving the sample from a first one of the reagent trays to a second one of the reagent trays; and a processor for selecting, at a plurality of times a sample to be moved, and for directing the roboti

Abstract: A system which performs a plurality of independent analysis procedures simultaneously, possibly involving differing types of tissues and differing process steps, comprising a robotic device, which may cause the different tissue samples to be processed by processing stations, and a processor, which may select the next process step. The processor may direct the robotic device to interleave the differing process steps. The processor may select a next process step in response to timing information about the procedures, which may specify the start time and end time of each process step. The specified times may be exact or may be a range of times. The processor may determine the exact time for a step by generating a possible sequence of steps and examining that sequence for conflicts, adjusting that sequence in response to those steps with a specified range of times, and iterating the calculation over a plurality of possible sequences.

Abstract: A system which performs a plurality of independent analysis procedures simultaneously, comprising a robotic arm and a processor, which may direct the robotic arm to interleave the differing process steps. The processor may select a tissue sample to be moved in response to timing information about the procedures, which may specify the start time and end time of each process step. The specified times may be exact or may be a range of times. The processor may determine the exact time for a step by generating a possible sequence of steps and examining that sequence for conflicts, adjusting that sequence in response to those steps with a specified range of times, and iterating the calculation over a plurality of possible sequences. The processor may also optimize the order in which samples are moved to minimize the total time required by the system to complete the procedures, e.g.

Abstract: A high intake, defined excitation, vertical profiling survey bioluminescence bathyphotometer system designed to measure, from a statistically significant sample with a calibrated hydromechanical stimulus, (1) the bioluminescence of phytoplankton and zooplankton organisms in the oceanic water column to depths of 400 meters in absolute units of photons per second per volume (intensity) or photons per volume (total flux), (2) the concentration of bioluminescent population in flashes per volume, (3) the average light intensity per bioluminescent event, and (4) population flash dynamics.

Abstract: A process and apparatus for grinding the proper taper and all of the flutes with the correct number of spirals simultaneously in a single cycle of the grinding machine. This is accomplished by passing a rotating stock to produce the correct number of spirals under a grinding wheel that is dressed with three or four properly formed ribs depending on how many flutes are being manufactured. These ribs are spaced so as to exactly match the lead distance of the rotating stock during 120.degree. or 90.degree. of revolution, depending on whether a three or four fluted instrument is being manufactured. The height of each individual rib on the grinding wheel varies in relationship with each other to exactly match the correct taper being created by moving either the rotating stock portion of the machine or the grinding wheel portion of the machine so as to increase the distance therebetween.

Abstract: A process and apparatus for grinding the proper taper and all of the flutes with the correct number of spirals simultaneously in a single cycle of the grinding machine. This is accomplished by passing a rotating stock to produce the correct number of spirals under a grinding wheel that is dressed with three or four properly formed ribs depending on how many flutes are being manufactured. These ribs are spaced so as to exactly match the lead distance of the rotating stock during 120.degree. or 90.degree. of revolution, depending on whether a three or four fluted instrument is being manufactured. The height of each individual rib on the grinding wheel varies in relationship with each other to exactly match the correct taper being created by moving either the rotating stock portion of the machine or the grinding wheel portion of the machine so as to increase the distance therebetween.