Abstract: Various implementations include a fully collapsible and portable tent. For example, in various implementations, the tent includes a frame assembly that includes two or more frame members and two hubs spaced apart from each other. Ends of the frame members are coupled to the hubs. At least one of the frame members is pivotably coupled to the hubs via pivotable brackets. The pivotably coupled frame member pivot about a first axis extending through each end of the pivotably coupled frame member and the respective pivotable bracket, and the pivotable brackets pivot about a second axis extending through the pivotable bracket and the respective hub, wherein the first axis is spaced apart from the first axis. The pivotable brackets allow the tent to be moved between the collapsed and expanded positions quickly and with minimal effort.

Abstract: Various implementations include a fully collapsible and portable tent. For example, in various implementations, the tent includes a frame assembly that includes two or more frame members and two hubs spaced apart from each other. Ends of the frame members are coupled to the hubs. At least one of the frame members is pivotably coupled to the hubs via pivotable brackets. The pivotably coupled frame member pivot about a first axis extending through each end of the pivotably coupled frame member and the respective pivotable bracket, and the pivotable brackets pivot about a second axis extending through the pivotable bracket and the respective hub, wherein the first axis is spaced apart from the first axis. The pivotable brackets allow the tent to be moved between the collapsed and expanded positions quickly and with minimal effort.

Abstract: Various implementations include a fully collapsible and portable tent. For example, in various implementations, the tent includes a frame assembly that includes two or more frame members and two hubs spaced apart from each other. Ends of the frame members are coupled to the hubs. At least one of the frame members is pivotably coupled to the hubs via pivotable brackets. The pivotably coupled frame member pivot about a first axis extending through each end of the pivotably coupled frame member and the respective pivotable bracket, and the pivotable brackets pivot about a second axis extending through the pivotable bracket and the respective hub, wherein the first axis is spaced apart from the first axis. The pivotable brackets allow the tent to be moved between the collapsed and expanded positions quickly and with minimal effort.

Abstract: Various implementations include a fully collapsible and portable tent. For example, in various implementations, the tent includes a frame assembly that includes two or more frame members and two hubs spaced apart from each other. Ends of the frame members are coupled to the hubs. At least one of the frame members is pivotably coupled to the hubs via pivotable brackets. The pivotably coupled frame member pivot about a first axis extending through each end of the pivotably coupled frame member and the respective pivotable bracket, and the pivotable brackets pivot about a second axis extending through the pivotable bracket and the respective hub, wherein the first axis is spaced apart from the first axis. The pivotable brackets allow the tent to be moved between the collapsed and expanded positions quickly and with minimal effort.

Abstract: The claimed subject matter relates to architectures and/or mechanisms that can facilitate issuing, embedding and verification of an optical DNA (o-DNA) signature. A first mechanism is provided for obtaining a set of manufacturing errors inherent in an optical media instance. These errors can be encoded into the o-DNA that can be cryptographically signed with a private key, then embedded into the source optical media instance. A second mechanism is provided that can decrypt the o-DNA with a public key and compare the authenticated errors to the observed errors to ascertain whether the optical media instance is authentic as opposed to a forgery or counterfeit.

Abstract: The claimed subject matter relates to architectures and/or mechanisms that can facilitate issuing, embedding and verification of an optical DNA (o-DNA) signature. A first mechanism is provided for obtaining a set of manufacturing errors inherent in an optical media instance. These errors can be encoded into the o-DNA that can be cryptographically signed with a private key, then embedded into the source optical media instance. A second mechanism is provided that can decrypt the o-DNA with a public key and compare the authenticated errors to the observed errors to ascertain whether the optical media instance is authentic as opposed to a forgery or counterfeit.