Abstract: A method for forming BiCMOS integrated circuits and structures formed according to the method. After forming doped wells and gate stacks for the CMOS devices and collector and base regions for the bipolar junction transistor, an emitter layer is formed within an emitter window. A dielectric material layer is formed over the emitter layer and remains in place during etching of the emitter layer and removal of the etch mask. The dielectric material layer further remains in place during source/drain implant doping and activation of the implanted source/drain dopants. The dielectric material layer functions as a thermal barrier, to limit out-diffusion of the emitter dopants during the activation step.

Abstract: A BiCMOS method for forming bipolar junction transistors and CMOS devices in a substrate. To avoid erosion of the bipolar junction transistor material layers, gate spacers for the CMOS devices are formed while a bipolar junction transistor photoresist layer is in place. The photoresist layer is used for etching the emitter polysilicon layer (for single polysilicon layer bipolar junction transistors) or for etching the base polysilicon layer (for double polysilicon layer bipolar junction transistors) prior to gate spacer etch.

Abstract: A BiCMOS method for forming bipolar junction transistors and CMOS devices in a substrate. To avoid erosion of the bipolar junction transistor material layers, gate spacers for the CMOS devices are formed while a bipolar junction transistor photoresist layer is in place. The photoresist layer is used for etching the emitter polysilicon layer (for single polysilicon layer bipolar junction transistors) or for etching the base polysilicon layer (for double polysilicon layer bipolar junction transistors) prior to gate spacer etch.

Abstract: A method, system, apparatus, and computer program product are presented to support computing systems of different enterprises that interact within a federated computing environment. Federated single-sign-on operations can be initiated at the computing systems of federation partners on behalf of a user even though the user has not established a user account at a federation partner prior to the initiation of the single-sign-on operation. For example, an identity provider can initiate a single-sign-on operation at a service provider while attempting to obtain access to a controlled resource on behalf of a user. When the service provider recognizes that it does not have a linked user account for the user that allows for a single-sign-on operation with the identity provider, the service provider creates a local user account. The service provider can also pull user attributes from the identity provider as necessary to perform the user account creation operation.

Abstract: A method and a system are presented in which federated domains interact within a federated environment. Domains within a federation can initiate federated single-sign-on operations for a user at other federated domains. A point-of-contact server within a domain relies upon a trust proxy within the domain to manage trust relationships between the domain and the federation. Trust proxies interpret assertions from other federated domains as necessary. Trust proxies may have a trust relationship with one or more trust brokers, and a trust proxy may rely upon a trust broker for assistance in interpreting assertions. When a user is provisioned at a particular federated domain, the federated domain can provision the user to other federated domains within the federated environment. A provision operation may include creating or deleting an account for a user, pushing updated user account information including attributes, and requesting updates on account information including attributes.