Abstract: Embodiments perform bulk multifactor authentication (MFA) enrollment in an identity cloud management system. An entity can be created in the identity cloud management system, where the entity is issued a credential that includes a permissions scope for communicating with the identity cloud management system. A bulk set of user identities and MFA enrollment information including MFA security factors for the user identities and a status for the user identities can be received in association with the credential, where the MFA security factors include a mix of communication addresses and shared secrets. A subset of the user identities that include a status that indicates MFA enrollment can be enrolled, where the enrolling includes creating an MFA footprint for the subset of user identities within an MFA database, and each created MFA footprint includes a received MFA security factor.

Abstract: An example system and method facilitates establishment of secure communications between software systems, e.g., a client computing device and one or more servers (e.g., a cloud) using Multi Factor Authentication (MFA) via strategic use of tokens. An example method for overcoming longstanding security loopholes and usability issues with conventional MFA methods includes efficiently securing registration code (e.g., via public key cryptography and tokens) and exchanged data (e.g., message payloads), in part by embedding a signed token (e.g., a JWT token signed by a private key of the server system) in a registration link used by a client system to communicate with one or more servers of a server system.

Abstract: Embodiments perform bulk multifactor authentication (MFA) enrollment in an identity cloud management system. An entity can be created in the identity cloud management system, where the entity is issued a credential that includes a permissions scope for communicating with the identity cloud management system. A bulk set of user identities and MFA enrollment information including MFA security factors for the user identities and a status for the user identities can be received in association with the credential, where the MFA security factors include a mix of communication addresses and shared secrets. A subset of the user identities that include a status that indicates MFA enrollment can be enrolled, where the enrolling includes creating an MFA footprint for the subset of user identities within an MFA database, and each created MFA footprint includes a received MFA security factor.

Abstract: An example system and method facilitates establishment of secure communications between software systems, e.g., a client computing device and one or more servers (e.g., a cloud) using Multi Factor Authentication (MFA) via strategic use of tokens. An example method for overcoming longstanding security loopholes and usability issues with conventional MFA methods includes efficiently securing registration code (e.g., via public key cryptography and tokens) and exchanged data (e.g., message payloads), in part by embedding a signed token (e.g., a JWT token signed by a private key of the server system) in a registration link used by a client system to communicate with one or more servers of a server system.

Abstract: Dispersing agent of MWCNTs and the method for preparation of homogeneous MWCNTs dispersion are disclosed. Acid yellow 9(4-amino-1-1?-azobenzene-3,4?-disulfonic acid, AY) is a good agent for multi-walled carbon nanotubes (MWCNTs). MWCNTs dispersed in AY solution was remained stable about three months and even remained stable after centrifugation at 10000 rpm for 30 min. Using MWCNTs/AY dispersion, thin-films were prepared on indium tin oxide coated glass electrode and glassy carbon electrode. Further, dried firms of MWCNTs/AY were subjected to electropolymerization in 0.1 M H2SO4 solution. Adsorbed AY molecules on MWCNTs get polymerized and then yield a polymer-MWCNTs nanocomposite film on electrode surface so as to modify properties of the electrode.