Vmware, Inc.

Airwatch LLC

Ashish Maan

Dheeraj Bhati

Suman Aluvala

Ramanandan Nambannor Kunnath

Arvind Maan

Swarnadeep Banerjee

Nitin Sethi

Naveen Mableshwar Hegde

Lokeswar Akuthota

Shanti Kamichetty

Santhosh Chandrashekarappa

Ramanandan Nk

Daniel Ochoa

Gaurav Badur Gopalkrishna

Adithya Ravi

Naveen Mableshwar Hedge

Bala Subrahmanyam Gangu

Disclosed are various examples for providing contextual awareness with an internet of things (IoT) infrastructure in an enterprise workspace. IoT devices can connect to a network through a gateway or other edge device enrolled in a management service. The gateway device can provide context-based services defined by the management services to users in an enterprise through interactions with IoT devices. A gateway device can identity managed user devices within a service range of the gateway device. When a managed user device is within the service range of the gateway device, the gateway device can provide a context-based service by interacting with connected IoT devices.

Contextual awareness with Internet of Things (IoT) infrastructure for managed devices

A first user device can receive a communication certificate associated with a user of the first user device. The communication certificate can allow the first user device to exchange certain information with a second user device that also possesses the communication certificate. The first user device can receive a notification. The first user device can also determine that a second user device associated with the user did not receive the notification. The first user device can initiate a direct connection with the second user device. The first use device can verify that the second device possesses the communication certificate. After verification, the first user device can send the notification to the second user device.

Peer-to-peer notification system

Examples described herein include systems and methods for providing user-specific applications on a shared user device. The user device can receive a first instance of an application having a Package ID that includes an identification of a first user. When the first user is logged in, the user device can display an icon associated with the first instance of the application, based on the Package ID including an identification of the first user. When the first user is not logged in, the user device can hide the first instance of the application. When a second user is logged in, the device can display a second instance of the application based on the Package ID of the second instance including an identification of the second user. The user device can also display the same instance of a shared application to both the first and second user.

User-specific applications for shared devices

Scheduling optimizations for services are described. In one example, a priority category, such as a high, low, or other priority category, can be determined for a service of an application executing on a computing device. If the application is running as a background application on the computing device, an exception to the start of the service can be returned by the operating system of the device, due to background execution limits on the device. In that case, the start of the service can be managed by a service manager of the application based on the priority category for the service. If the priority category for the service is high, the background application can call a foreground service. The call for the foreground service can bring the application to the foreground, and the service manager can again call for the start of the service after the foreground service is running.

Service schedule optimization for background execution limits

Systems herein allow a student to share media with other students in a classroom with the permission of a teacher. The student can send a sharing request to a management server with a sender student device. The management server can identify a teacher device and send the sharing request to the teacher device for approval. When the request is granted, the student device can supply an address local to the sender device, from which the media will stream. The management server can send the address and an authentication token to other recipient student devices. The management server can further lock the recipient student devices into the sharing location to ensure that each student device will stream the media. At the request of the teacher device or the sender student device, the streaming can end.

Systems for classroom media sharing

Disclosed are various examples for performing actions using augmented reality. In some examples, a user interface that includes a field of view is generated. The field of view is currently captured using a camera of a client device. Object data in the field of view is detected. Position data is determined. The position data includes a location of the client device and an orientation vector that indicates a direction the camera of the client device. A request for actions is transmitted to a management service. The request includes the object data and the position data. An action and an identity of a managed object are received from the management service. The user interface is updated to include an identity of a managed object, and a user interface element that when selected causes an action to be performed.

Managed actions using augmented reality

Examples described herein include systems for generating a predictive action button within a graphical user interface. The system can launch an action generator that tracks a user's behavior, either directly or through the use of an action profile. User behavior can be tracked in individual applications or across multiple applications and devices. Action modules can implement application events and procedures to track particular events and behavior information for that application. A module engine can analyze correlations between the events and behaviors. Based on this analysis, the predictive action button can be displayed for carrying out the predicted action when the corresponding application event occurs.

Generating predictive action buttons within a graphical user interface

Examples described herein include systems and methods for reducing power consumption among multiple user devices that are communicatively coupled to a management server. The management server can receive an indication that a first user device (a laptop computer, for example) is in an active state and that a first application (an email application or a web browser, for example), is executing at the laptop computer. The management server determines that a second user device (a smartphone, for example) is associated with the same user and further determines that a second application is installed on the smartphone. The management server can determine that the smartphone is in an inactive state or that the second application is currently not executing on the smartphone. The management server sends an instruction to the smartphone to turn off at least one functionality so as to reduce power consumption.

Reducing power consumption among multiple user devices

Systems and methods presented here can allow a teacher to schedule the locking of one or more student devices into an asset at some time in the future. A teacher device can be used to configure lock information, including student identifying information, lock type information, asset information, and lock timing information. The lock information can be transmitted to the student devices for local storage. The lock can then initiate on the student device at the scheduled time even in instances when the student device is not connected to a communication network. After lock expiration, an updated asset can be stored at the student device in conjunction with lock confirmation information. When the student device detects a network connection, the updated asset and the lock confirmation information can be transmitted to a management server where it can be accessed and evaluated by the teacher.

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Bengaluru, India

Ashish Maan