Abstract: Certain examples of the present invention relate to a multi-electrode device for use with a user's body part. Certain examples provide an apparatus (100) comprising: a plurality of electrodes (101); a signal line (102) for conveying electrical signals to or from the plurality of electrodes (101); wherein the plurality of electrodes (101) and the signal line (102) are integrally formed in the apparatus (100), and wherein the apparatus (100) is configured such that a user is able to selectively electrically couple one or more of the plurality of electrodes (101) to the signal line (102).

Abstract: An approach is provided for providing secure signing and utilization of distributed computations. A distributed computation authentication platform causes, at least in part, a signing of one or more computation closures of at least one functional flow. The distributed computation authentication platform also processes and/or facilitates a processing of the one or more signed computation closures to cause, at least in part, a transfer of the one or more signed computation closures among one or more levels, one or more nodes, or a combination thereof, wherein an execution of the one or more signed computation closures at the one or more levels, the one or more nodes, or a combination thereof is based, at least in part, on an authentication of the signed one or more computation closure.

Abstract: An approach is provided for providing secure signing and utilization of distributed computations. A distributed computation authentication platform causes, at least in part, a signing of one or more computation closures of at least one functional flow. The distributed computation authentication platform also processes and/or facilitates a processing of the one or more signed computation closures to cause, at least in part, a transfer of the one or more signed computation closures among one or more levels, one or more nodes, or a combination thereof, wherein an execution of the one or more signed computation closures at the one or more levels, the one or more nodes, or a combination thereof is based, at least in part, on an authentication of the signed one or more computation closure.

Abstract: An approach is provided for providing energy optimization in multi-level distributed computations. A distributed computation energy optimization platform determines energy availability information associated with at least one level of a computational architecture executing at least portion of one computation closure. The distributed computation energy optimization platform also determines energy consumption information associated with the at least portion of one computation closure. The distributed computation energy optimization platform further processes and/or facilitates a processing of the energy availability information, the energy consumption information, or a combination thereof to determine whether to migrate the at least portion of one computation closure to at least one other level of the computational architecture.

Abstract: An approach is provided for providing end-to-end security in multi-level distributed computations. A distributed computation security platform determines one or more signatures associated with one or more computation closures of at least one functional flow. The distributed computation security platform also processes and/or facilitates a processing of the one or more signatures to generate at least one supersignature. The distributed computation security platform further determines to associate the at least one supersignature with the at least one functional flow.

Abstract: An approach is provided for providing multi-level distributed computations. A distributed computation manager receives at least one request to migrate at least one computation closure within a computational architecture, the computational architecture comprising a plurality of architectural levels including, at least in part, a device level, an infrastructure level, and a cloud computing level. The distributed computation manager also determines to select at least one of the architectural levels based, at least in part, on a determination of whether the network infrastructure level can support the at least one computation closure. The distributed computation manager further determines to migrate the at least one computation closure to the selected at least one of the architectural levels.

Abstract: An approach is provided for providing load balancing in multi-level distributed computations. A distributed computation control platform determines closure capability data associated with respective levels of a computational architecture, wherein the respective levels include, at least in part, a device level, an infrastructure level, and a cloud computing level. The distributed computation control platform also determines functional flow information of the respective levels, one or more nodes of the respective levels, or a combination thereof with respect to at least one set of one or more computation closures. The distributed computation control platform further determines to cause, at least in part, processing at least the closure capability data, the functional flow information, or a combination thereof to determine: (a) a distribution of the one or more computation closures among the respective levels, (b) the one or more nodes, or (c) a combination thereof.

Abstract: A system for propagating encryption key information between wireless communication devices without the requirement of pairing each and every device. A wireless communication device may be paired with at least one device in a group of devices. When a secure link is established between these devices, a determination may be made as to whether encryption key information should be passed from one device to another. The additional encryption key information may allow a wireless communication device to create a secure link with other devices without having to first establish a trusted relationship (e.g., go through a pairing process) with the other devices.

Abstract: An approach is provided for providing end-to-end privacy in multi-level distributed computations. A distributed computation privacy platform determines one or more privacy policies associated with at least one level of a computational environment. The distributed computation privacy platform also determines one or more computation closures associated with the at least one level of the computational environment. The distributed computation privacy platform further processes and/or facilitates a processing of the one or more privacy policies and the one or more computation closures to cause, at least in part, an enforcement of the one or more privacy policies.

Abstract: An approach is provided for providing end-to-end privacy in multi-level distributed computations. A distributed computation privacy platform determines one or more privacy policies associated with at least one level of a computational environment. The distributed computation privacy platform also determines one or more computation closures associated with the at least one level of the computational environment. The distributed computation privacy platform further processes and/or facilitates a processing of the one or more privacy policies and the one or more computation closures to cause, at least in part, an enforcement of the one or more privacy policies.

Abstract: An approach is provided for providing secure signing and utilization of distributed computations. A distributed computation authentication platform causes, at least in part, a signing of one or more computation closures of at least one functional flow. The distributed computation authentication platform also processes and/or facilitates a processing of the one or more signed computation closures to cause, at least in part, a transfer of the one or more signed computation closures among one or more levels, one or more nodes, or a combination thereof, wherein an execution of the one or more signed computation closures at the one or more levels, the one or more nodes, or a combination thereof is based, at least in part, on an authentication of the signed one or more computation closure.

Abstract: An approach is provided for providing end-to-end security in multi-level distributed computations. A distributed computation security platform determines one or more signatures associated with one or more computation closures of at least one functional flow. The distributed computation security platform also processes and/or facilitates a processing of the one or more signatures to generate at least one supersignature. The distributed computation security platform further determines to associate the at least one supersignature with the at least one functional flow.

Abstract: An approach is provided for providing energy optimization in multi-level distributed computations. A distributed computation energy optimization platform determines energy availability information associated with at least one level of a computational architecture executing at least portion of one computation closure. The distributed computation energy optimization platform also determines energy consumption information associated with the at least portion of one computation closure. The distributed computation energy optimization platform further processes and/or facilitates a processing of the energy availability information, the energy consumption information, or a combination thereof to determine whether to migrate the at least portion of one computation closure to at least one other level of the computational architecture.

Abstract: An approach is provided for providing input suggestions. An input generating platform causes, at least in part, presentation of a user interface element including at least one input field. The input generating platform also determines at least one field type associated with the at least one input field. The input generating platform further identifies at least one information store, context store, or a combination thereof based, at least in part, on the at least one field type. The input generating platform also determines to migrate one or more computations for generating one or more suggestions, one or more default values, or a combination thereof for populating the at least one input field, generating the user interface element, or a combination thereof to the at least one information store, context store, or a combination thereof.

Abstract: An approach is provided for providing multi-level distributed computations. A distributed computation manager receives at least one request to migrate at least one computation closure within a computational architecture, the computational architecture comprising a plurality of architectural levels including, at least in part, a device level, an infrastructure level, and a cloud computing level. The distributed computation manager also determines to select at least one of the architectural levels based, at least in part, on a determination of whether the network infrastructure level can support the at least one computation closure. The distributed computation manager further determines to migrate the at least one computation closure to the selected at least one of the architectural levels.

Abstract: An approach is provided for providing load balancing in multi-level distributed computations. A distributed computation control platform determines closure capability data associated with respective levels of a computational architecture, wherein the respective levels include, at least in part, a device level, an infrastructure level, and a cloud computing level. The distributed computation control platform also determines functional flow information of the respective levels, one or more nodes of the respective levels, or a combination thereof with respect to at least one set of one or more computation closures. The distributed computation control platform further determines to cause, at least in part, processing at least the closure capability data, the functional flow information, or a combination thereof to determine: (a) a distribution of the one or more computation closures among the respective levels, (b) the one or more nodes, or (c) a combination thereof.

Abstract: An approach is provided for providing persistent computations. A persistent computation manager determines at least one non-volatile memory space of a device. The persistent computation manager also determines at least one other non-volatile memory space of at least one other device. The persistent computation manager further determines to form a persistent memory address space based, at least in part, on the at least one non-volatile memory space and the at least one other non-volatile memory space.

Abstract: A system for propagating encryption key information between wireless communication devices without the requirement of pairing each and every device. A wireless communication device may be paired with at least one device in a group of devices. When a secure link is established between these devices, a determination may be made as to whether encryption key information should be passed from one device to another. The additional encryption key information may allow a wireless communication device to create a secure link with other devices without having to first establish a trusted relationship (e.g., go through a pairing process) with the other devices.