Abstract: Systems and methods are disclosed for providing a secure communication between a first network and a second network. The method may include receiving, at a Secure Access Smart Hub (SASH), a signal from the first network requesting a communication connection; establishing a first connection between the first network and the SASH; establishing a second connection between the SASH and the second network; receiving, at the SASH, data from the first network having a first protocol; translating the data having the first protocol into data having a second protocol; and transmitting the data from the SASH to the second network.

Abstract: Systems and methods are disclosed for providing a secure communication between a first network and a second network. The method may include receiving, at a Secure Access Smart Hub (SASH), a signal from the first network requesting a communication connection; establishing a first connection between the first network and the SASH; establishing a second connection between the SASH and the second network; receiving, at the SASH, data from the first network having a first protocol; translating the data having the first protocol into data having a second protocol; and transmitting the data from the SASH to the second network.

Abstract: Systems, methods, apparatus, and computer program products are provided for monitoring powered assets for fueling. For example, in one embodiment, a fuel server can monitor the location of powered assets and fueling units. In response to determining, for example, that a powered asset that needs fuel is within a predetermined geofence defined around a fueling unit, the powered asset can emit a perceivable indication. The powered asset can then be authenticated for receiving fuel from the fueling unit.

Abstract: Systems, methods, apparatus, and computer program products are provided for monitoring powered assets for fueling. For example, in one embodiment, a fuel server can monitor the location of powered assets and fueling units. In response to determining, for example, that a powered asset that needs fuel is within a predetermined geofence defined around a fueling unit, the powered asset can emit a perceivable indication. The powered asset can then be authenticated for receiving fuel from the fueling unit.

Abstract: Systems, methods, apparatus, and computer program products are provided for monitoring powered assets for fueling. For example, in one embodiment, a fuel server can monitor the location of powered assets and fueling units. In response to determining, for example, that a powered asset that needs fuel is within a predetermined geofence defined around a fueling unit, the powered asset can emit a perceivable indication. The powered asset can then be authenticated for receiving fuel from the fueling unit.

Abstract: Systems, methods, apparatus, and computer program products are provided for monitoring powered assets for fueling. For example, in one embodiment, a fuel server can monitor the location of powered assets and fueling units. In response to determining, for example, that a powered asset that needs fuel is within a predetermined geofence defined around a fueling unit, the powered asset can emit a perceivable indication. The powered asset can then be authenticated for receiving fuel from the fueling unit.

Abstract: Systems, methods, apparatus, and computer program products are provided for monitoring powered assets for fueling. For example, in one embodiment, a fuel server can monitor the location of powered assets and fueling units. In response to determining, for example, that a powered asset that needs fuel is within a predetermined geofence defined around a fueling unit, the powered asset can emit a perceivable indication. The powered asset can then be authenticated for receiving fuel from the fueling unit.

Abstract: Systems, methods, apparatus, and computer program products are provided for monitoring powered assets for fueling. For example, in one embodiment, a fuel server can monitor the location of powered assets and fueling units. In response to determining, for example, that a powered asset that needs fuel is within a predetermined geofence defined around a fueling unit, the powered asset can emit a perceivable indication. The powered asset can then be authenticated for receiving fuel from the fueling unit.

Abstract: Systems, methods, apparatus, and computer program products are provided for monitoring powered assets for fueling. For example, in one embodiment, a fuel server can monitor the location of powered assets and fueling units. In response to determining, for example, that a powered asset that needs fuel is within a predetermined geofence defined around a fueling unit, the powered asset can emit a perceivable indication. The powered asset can then be authenticated for receiving fuel from the fueling unit.

Abstract: Systems, methods, apparatus, and computer program products are provided for monitoring powered assets for fueling. For example, in one embodiment, a fuel server can monitor the location of powered assets and fueling units. In response to determining, for example, that a powered asset that needs fuel is within a predetermined geofence defined around a fueling unit, the powered asset can emit a perceivable indication. The powered asset can then be authenticated for receiving fuel from the fueling unit.

Abstract: There is provided a child safety seat for use with a vehicle seat. The child safety seat comprises a cradle arranged for secure fitting to said vehicle seat, said cradle having a base part and an upright support part; a turntable, rotationally mounting to the base part of the cradle; and a seat shell, mounting on the turntable such that the turntable and the seat shell are rotatable in tandem relative to the cradle. The turntable also rotationally mounts to the upright support part of the cradle. There is also provided a cradle, turntable and seat shell for use in child safety seat as separate components, sub-assemblies or as a kit of parts. Seat belt tensioning means are also provided.

Abstract: A system and a method for managing, organizing, and allocating service providers in the operational environment of a distributed computer network by applying trade and price mechanisms to a plurality of resource allocation decisions. Local resource allocation rules are set forth for maintaining a near-optimal, global load distribution. The service providers are dynamically allocated based upon the supply of the providers and the demand thereof. An automated mechanism, based on service provider reputation, channels demand away from failing or broken service providers. Strategic load balancing rules cause the elimination of ineffective service providers, and also provide a dynamic replication of service providers that cannot handle the current demand. Further, a method for managing the overall system behavior utilizes administrative surcharges.