Abstract: Workload processing is facilitated in a data processing environment including a sender system, a load balancer and a plurality of target resources. The sender system sends workloads to the load balancer, and the load balancer distributes the workloads to the plurality of target resources for processing. Facilitating workload processing includes receiving, by the load balancer, sender status-related information which is indicative of a workload capacity issue from the sender system's view related, at least in part, to the sending of the workloads to the load balancer. The load balancer distributes one or more workloads of the sender system to one or more target resources of the plurality of target resources in a manner based, at least in part, upon the received sender status-related information.

Abstract: Workload processing is facilitated in a data processing environment including a sender system, a load balancer and a plurality of target resources. The sender system sends workloads to the load balancer, and the load balancer distributes the workloads to the plurality of target resources for processing. Facilitating workload processing includes receiving, by the load balancer, sender status-related information which is indicative of a workload capacity issue from the sender system's view related, at least in part, to the sending of the workloads to the load balancer. The load balancer distributes one or more workloads of the sender system to one or more target resources of the plurality of target resources in a manner based, at least in part, upon the received sender status-related information.

Abstract: Workload processing is facilitated in a data processing environment including a sender system, a load balancer and a plurality of target resources. The sender system sends workloads to the load balancer, and the load balancer distributes the workloads to the plurality of target resources for processing. Facilitating workload processing includes receiving, by the load balancer, sender status-related information which is indicative of a workload capacity issue from the sender system's view related, at least in part, to the sending of the workloads to the load balancer. The load balancer distributes one or more workloads of the sender system to one or more target resources of the plurality of target resources in a manner based, at least in part, upon the received sender status-related information.

Abstract: Workload processing is facilitated in a data processing environment including a sender system, a load balancer and a plurality of target resources. The sender system sends workloads to the load balancer, and the load balancer distributes the workloads to the plurality of target resources for processing. Facilitating workload processing includes receiving, by the load balancer, sender status-related information which is indicative of a workload capacity issue from the sender system's view related, at least in part, to the sending of the workloads to the load balancer. The load balancer distributes one or more workloads of the sender system to one or more target resources of the plurality of target resources in a manner based, at least in part, upon the received sender status-related information.

Abstract: A process for irrigation involves monitoring reclaimed water, and treating it when necessary. The reclaimed water is tested with monitors to obtain results for water quality characteristics, including: pH; residual chlorine; and, sodium. These results are inputted to a computerized data handling system for data collection, storage and analysis for comparison to predetermined acceptable ranges for water quality characteristic, and to show any deviation from said acceptable ranges. Either alarms are set off or treatment occurs or both, when deviations are observed. Treatment includes a dechlorination system to correct active chlorine, and, optionally, an oxidation system. There is also a reverse osmosis step for reduction of salts, such as sodium. Other monitors may include one or more of hardness; turbidity; alkalinity; conductivity and nitrates.

Abstract: The process for irrigation of a man-made landscaped area, such as a golf course, playing field or agricultural area, involves monitoring a sample of reclaimed water, a sample of soil containing reclaimed water, or both from a supply of reclaimed water, and treating it when necessary to avoid harmful effects to plantlife, and irrigating with the treated water via a subterranean distribution system. The sample is tested with monitors for water quality characteristics, including: total organic carbon compounds; pH; residual chlorine; chlorides; and, sodium. These results are inputted to a computerized data handling system for data collection, storage and analysis for comparison to predetermined acceptable ranges to show deviation from acceptable ranges. Either alarms are set off or treatment occurs or both, when deviations are observed. Treatment may include a dechlorination system, an oxidation system, reverse osmosis system. Other monitors may be for hardness; turbidity; alkalinity; conductivity and nitrates.

Abstract: The present invention is process for irrigation of a golf course, which involves monitoring reclaimed water, and treating it when necessary to avoid harmful effects to plantlife. The reclaimed water is tested with a plurality of monitors to obtain results for water quality characteristics, including: pH; residual chlorine; and, sodium. These results are inputted to a computerized data handling system for data collection, storage and analysis for comparison to predetermined acceptable ranges for water quality characteristic, and to show any deviation from said acceptable ranges. Either alarms are set off or treatment occurs or both, when deviations are observed. Treatment includes a dechlorination system to correct active chlorine. Other important monitors may be included for one or more of the following: hardness; turbidity; alkalinity; conductivity and nitrates.

Abstract: The present invention is process for irrigation of a golf course, which involves monitoring reclaimed water, and treating it when necessary to avoid harmful effects to plantlife. The reclaimed water is tested with a plurality of monitors to obtain results for water quality characteristics, including: pH; residual chlorine; and, sodium. These results are inputted to a computerized data handling system for data collection, storage and analysis for comparison to predetermined acceptable ranges for water quality characteristic, and to show any deviation from said acceptable ranges. Either alarms are set off or treatment occurs or both, when deviations are observed. Treatment includes a dechlorination system to correct active chlorine. Other important monitors may be included for one or more of the following: hardness; turbidity; alkalinity; conductivity and nitrates.

Abstract: The present invention is process for irrigation of a golf course, which involves monitoring reclaimed water, and treating it when necessary to avoid harmful effects to plantlife. The reclaimed water is tested with a plurality of monitors to obtain results for water quality characteristics, including: pH; residual chlorine; and, sodium. These results are inputted to a computerized data handling system for data collection, storage and analysis for comparison to predetermined acceptable ranges for water quality characteristic, and to show any deviation from said acceptable ranges. Either alarms are set off or treatment occurs or both, when deviations are observed. Treatment includes a dechlorination system to correct active chlorine, and, optionally, an oxidation system. There is also a reverse osmosis step for reduction of salts, such as sodium. Other important monitors may be included for one or more of the following: hardness; turbidity; alkalinity; conductivity and nitrates.

Abstract: A collision warning system (10) discriminates between objects which pose a threat of collision from those which do not by measuring the relative sightline rate of the object, this being a measure of the rate of change of angular position of the object if the sightline rate is above a threshold value, there is little risk of collision. To measure the sightline rate, a radar source (20) emits microwave frequency radiation which is received by two detectors (22 and 24) after reflection from a target. Signals from the detectors are processed by processing means (26). The processing means determines if the sightline rate of an object is below a certain threshold. If it is, and the relative velocities of the object and the system are such that a collision is likely, a warning buzzer (28) sounds.

Abstract: A system for testing a data processing network and diagnosing malfunctions therein is disclosed. It is assumed that the data processing network includes a plurality of processing units coupled by communication paths in which each processing unit communicates with one or more other processing units in the data processing network by sending and receiving data packets over one or more of the communication paths. The system includes probes and a local processor for creating modified data packets from the data packets present on the network communication paths. The modified data packets allow a central processing unit which is communication with the local processor to diagnose network errors while maintaining the security of the data contained in the original data packets.