International Business Machines Corporation

Leonard Scott Hand

Romelia H Flores

Joseph E Hackett

Jeffery R Washburn

Bret A Bailey

Christina I Flores

Michael Anson Lau

Timothy C Kwan

Biao Hao

Adam A Nemati

Pratik A Naik

Catherine Anne Chess

Philip E Reed

Gary L Detro

Michael Flores

Christopher Murasso

Sridhar Nelluvai Sasidharan

Christine Engeleit

Joe Hackett

A method, apparatus, system, and computer program product for managing time-based elements. A computer system identifies the time-based elements, wherein the time-based elements have time units. The computer system arranges the nodes, representing the time-based elements, in a temporal node tree, wherein the nodes have the time units from corresponding time-based elements and a policy that defines scaling of the nodes based on the time units allocated to the nodes.

Time-based element management in a computer system using temporal node trees

A method of selectively allocating a plurality of deployment units among a plurality of clouds. The method can include identifying a first context of a first deployment unit of a workload and identifying a second context of a second deployment unit of the workload. Based on the first context, a first of the plurality of clouds that satisfies at least one requirement indicated by the first context can be identified and the first deployment unit can be automatically allocated to the first cloud. Based on the second context, a second of the plurality of clouds that satisfies at least one requirement indicated by the second context can be identified, wherein the first cloud does not satisfy the requirement indicated by the second context, and the second deployment unit can be automatically allocated to the second cloud.

Dynamic allocation of workload deployment units across a plurality of clouds

Managing virtual machines includes determining an operating parameter of a device during operation of the device as part of a cluster of devices while the device hosts a virtual machine and comparing, using a processor, a requirement for the virtual machine with the operating parameter. A view of the virtual machine operating within the device of the cluster can be displayed. A result of the comparison can be indicated through application of a visualization technique to an identifier representing the virtual machine within the view.

Managing virtual clustering environments according to requirements

An enterprise model associated with an operational environment within an operational dashboard can be identified. The model can include an entity which can be an operational node, an architecture component node, a resource, a goal, or a constraint of an enterprise organization. The environment can include element which can be a computing resource and a computing resource state associated with the organization. An operational state change within the operational environment can be performed. A result of the change can be presented within an architectural view of the model within the dashboard. The result can include a context, a policy, a function, or a relationship affecting the model.

Enabling real-time operational environment conformity within an enterprise architecture model dashboard

An enterprise IoT concentrator can receive, from a first community IoT concentrator, first data corresponding to a security issue detected by at least one of a first plurality of devices located within a first physical environment, wherein the first plurality of devices are communicatively linked to one another within a first device domain that is a member of a first device community which includes the first community IoT concentrator. Responsive to receiving the first data, the enterprise IoT concentrator can process the first data to generate second data corresponding to the security issue. The second data can be configured to be processed by a second community IoT concentrator to initiate at least one device located within a second physical environment to perform a specific act that enhances security in the second physical environment. The enterprise IoT concentrator can communicate the second data to the second community IoT concentrator.

Leveraging an internet of things to initiate a physical object to perform a specific act that enhances security

A method of allocating cloud resources. A user interface can be presented to a user. The user interface can be configured to receive a user selection of a change of context for at least one of a plurality of workloads allocated to at least one cloud. Responsive to receiving the user selection of the change of context for the workload, via a processor, a service level agreement applicable to the workload can be dynamically changed from a first service level agreement to a second service level agreement, while the workload remains in an available state.

Dynamic allocation of a workload across a plurality of clouds

An operational environment and an enterprise model within an enterprise organization can be identified. The model can include an entity which can be a structure, an activity, a process, information, a resource, a goal, or a constraint of the organization. The environment can include an element which can be a computing resource or a computing resource state associated with the organization. A super model can be created. The super model can be a meta-model of the enterprise model. The super model can be a common component of the enterprise model and the environment. The super model can be synchronized in real time with the environment and the enterprise model.

Enabling synchronicity between architectural models and operating environments

A set of asset signatures can be analyzed. Each asset signature can be associated with an asset. Derelict assets can be discovered based on the asset signatures. The asset can represent a fundamental structural unit of an information technology (IT) environment. A multi-stage screening process can be performed to discover derelict assets. In a first stage, assets having a normal state are able to be changed to a suspect state based on results of analyzing the corresponding asset signature. In a second stage, assets having a suspect state are able to be selectively changed in state to a normal state or to a derelict state. An asset management system record can be maintained for each of the set of assets. Each record of the asset management system can be a configuration item (CI), which indicates whether each of the set of assets is in a normal state, a suspect state, or a derelict state. The asset management system can periodically reclaim resources consumed by derelict assets.

Utilizing signatures to discover and manage derelict assets of an information technology environment

A first community Internet of Things (IoT) concentrator can receive first data corresponding to an interaction of a user with at least one of a first plurality of physical objects, the first plurality of physical objects communicatively linked to one another within a first device domain. Responsive to receiving the first data corresponding to the interaction of the user with the at least one of the first of the plurality of physical objects, the first community IoT concentrator or a second IoT concentrator can initiate, based at least in part on the first data, at least one of a second plurality of physical objects to perform a specific act that enhances an interaction of the user with the at least one of the second plurality of physical objects. The second plurality of physical objects can be communicatively linked to one another within a second device domain.

Leveraging an internet of things to initiate a physical object to perform a specific act that enhances an interaction of a user with the physical object

An asset within a repository can be identified. The asset can be an electronic file. The asset can include an asset content and an asset metadata. The asset content can include a static content and a dynamic content. The asset can be semantically disassembled into one or more assemblies. The assemblies can each include an asset data and an assembly data. The assembly data can include an assembly identifier, an assembly rule, or an asset data source. A data container format associated with the asset content can be determined. The data container can be a computing data structure. The asset content can be dynamically presented within a different data container format in accordance with the request.

Enabling dynamic polymorphic asset creation and reuse

Embodiments of the present invention provide methods, computer program products, and systems for leveraging social networks in physical gatherings. Embodiments of the present invention generate profiles for participants at the physical gathering. Embodiments of the present invention can enrich the participants experience at the physical gathering by providing information to the participant, based on the profile for the participant.

Leveraging social networks in physical gatherings

One embodiment provides a system for monitoring and controlling an online user profile of a user. In response to receiving a data request from the user to access a first web site, the system forwards the data request and desired persona scores to an intelligence service system, receives a list of other web sites from the intelligence service system, and counteracts the user's access to the first web site by spawning multiple threads in accordance with the list received. The multiple threads spawned are transparent to the user. Further, the system alters an original data post submission from the user based on a desired translation option, maps the altered data post submission to a first key, and posts the altered data post submission to a target web site. The original data post submission is viewable only by the user and other users with the first key.

Growing community of inventors

Red Creek, NY, United States of America

Leonard Scott Hand