Abstract: Systems and methods described herein provide selective synchronization of DNS records. A synchronization data store is synchronized by: obtaining a complete set of domain name system (DNS) records for a first data center; and copying the complete set of DNS records to the synchronization data store. After the synchronization data store is initialized, at a particular time interval, a snapshot of the complete set of DNS records is repeatedly collected. Differences between the copied complete set of DNS records of the synchronization data store and the snapshot of the complete set of DNS records are identified. The synchronization data store is updated with the differences and a determination is made as to whether the differences should be implemented at a second data center. When the differences should be implemented at the second data center, the differences are propagated to the second data center, otherwise they are not.

Abstract: Systems and methods described herein provide selective synchronization of DNS records. A synchronization data store is synchronized by: obtaining a complete set of domain name system (DNS) records for a first data center; and copying the complete set of DNS records to the synchronization data store. After the synchronization data store is initialized, at a particular time interval, a snapshot of the complete set of DNS records is repeatedly collected. Differences between the copied complete set of DNS records of the synchronization data store and the snapshot of the complete set of DNS records are identified. The synchronization data store is updated with the differences and a determination is made as to whether the differences should be implemented at a second data center. When the differences should be implemented at the second data center, the differences are propagated to the second data center, otherwise they are not.

Abstract: Systems and methods described herein provide selective synchronization of DNS records. A synchronization data store is synchronized by: obtaining a complete set of domain name system (DNS) records for a first data center; and copying the complete set of DNS records to the synchronization data store. After the synchronization data store is initialized, at a particular time interval, a snapshot of the complete set of DNS records is repeatedly collected. Differences between the copied complete set of DNS records of the synchronization data store and the snapshot of the complete set of DNS records are identified. The synchronization data store is updated with the differences and a determination is made as to whether the differences should be implemented at a second data center. When the differences should be implemented at the second data center, the differences are propagated to the second data center, otherwise they are not.

Abstract: Systems and methods described herein provide selective synchronization of DNS records. A synchronization data store is synchronized by: obtaining a complete set of domain name system (DNS) records for a first data center; and copying the complete set of DNS records to the synchronization data store. After the synchronization data store is initialized, at a particular time interval, a snapshot of the complete set of DNS records is repeatedly collected. Differences between the copied complete set of DNS records of the synchronization data store and the snapshot of the complete set of DNS records are identified. The synchronization data store is updated with the differences and a determination is made as to whether the differences should be implemented at a second data center. When the differences should be implemented at the second data center, the differences are propagated to the second data center, otherwise they are not.

Abstract: A protective pocket is provided for a substantially two-dimensional object, such as a race bib. The protective pocket includes cooperating first and second lightweight fabrics, and an opening for receiving the object. The first fabric may be an item of a race participant's apparel or a backing that itself is attached to such an apparel item. The second fabric may be a mesh member having spaced apertures through which the object is visible and exposed to elements. The first and second fabrics may be removeably secured to one another. The protective pocket is configured to maintain the object in a substantially vertical planar orientation, and thereby in an “upright” position, such that it that is (a) substantially parallel to the plane defined by the adjacent surface of the race participant's apparel item, and (b) substantially parallel to the plane defined by the adjacent body part of the race participant (e.g., a torso or leg).

Abstract: A protective pocket is provided for a substantially two-dimensional object, such as a race bib. The protective pocket includes cooperating first and second lightweight fabrics, and an opening for receiving the object. The first fabric may be an item of a race participant's apparel or a backing that itself is attached to such an apparel item. The second fabric may be a mesh member having spaced apertures through which the object is visible and exposed to elements. The protective pocket is configured to maintain the object in a substantially vertical planar orientation, and thereby in an “upright” position, such that it that is (a) substantially parallel to the plane defined by the adjacent surface of the race participant's apparel item, and (b) substantially parallel to the plane defined by the adjacent body part of the race participant (e.g., a torso or leg). This positioning also improves the visibility of the indicia printed on the object through the mesh member.