Abstract: Disclosed are various embodiments for application monetization based on application fingerprinting and lifestyle fingerprinting. Application fingerprints are determined for multiple applications. A respective application fingerprint is generated based at least in part on a static analysis, a dynamic analysis, and a behavioral analysis, and is indicative of one or more features of an application. Lifestyle fingerprints are determined for multiple users. A respective lifestyle fingerprint is indicative of one or more preferences of a user. An action is implemented to market a selected application based at least in part on a correlation between the lifestyle fingerprints and a set of application fingerprints that are determined to be similar to the application fingerprint of the selected application.

Abstract: Autonomous ground vehicles (“AGVs”) are utilized to transport items to delivery locations and may be modular in that a storage compartment portion (e.g., which may hold an ordered item) may be removable (i.e., separable) from a propulsion portion. In various implementations, the storage compartment portion may be securely attached to the propulsion portion during transport (e.g., requiring an access code to remove and/or open), and the storage compartment portion may similarly be securely attached to the delivery location (e.g., at a docking station) when delivered. In various implementations, the storage compartment portion may be refrigerated, heated, etc., and may include various sensors on the inside and outside of the storage compartment portion (e.g., temperature sensors, motion sensors, image sensors to determine the presence and condition of items and/or to assist with navigation and other operations of the propulsion portion, etc.).

Abstract: Autonomous ground vehicles (“AGVs”) may be deployed from facilities (e.g., materials handling facilities, etc.) to deliver items to specified locations (e.g., user residences). In various implementations, AGVs may utilize various techniques for long-range travel between materials handling facilities and delivery locations (e.g., solar charging, strategically placed charging stations, energy efficient travel paths, etc.). In various implementations, AGV facilities (e.g., smaller types of materials handling facilities) may be sized to be more easily located in compressed urban areas (e.g., to be closer to various delivery locations, etc.) and may function as home base locations where AGVs are stationed and/or where items are received (e.g., from transportation vehicles) for delivery to local delivery locations.

Abstract: The present disclosure is directed to autonomous vehicles, such as autonomous ground vehicles (“AGVs”) that may be utilized to transport items to specified locations (e.g., residences, dormitory rooms, etc.), operate as a safety escort for a human moving from one location to another (e.g., from a campus library to a dormitory room), form ad-hoc wireless networks with other autonomous vehicles, and/or to operate as a mobile security station that can provide direct connection between a person at the location of the autonomous vehicle and security, rescue, and/or other personnel.

Abstract: Autonomous ground vehicles (“AGVs”) are utilized to transport ordered items and may congregate in meeting areas (e.g., to receive items from common sources, utilize common resources, communicate, etc.) and the positions of the AGVs in an area may be coordinated. For example, AGVs waiting to receive ordered items from a transportation vehicle (e.g., a delivery truck) may be lined up according to delivery addresses, or according to an order of items in the transportation vehicle, etc. As another example, AGVs that are in a pickup area (e.g., where users may retrieve ordered items from the AGVs), may be arranged in a configuration that is relatively compact but which provides easy access for the users to retrieve the ordered items, etc. The AGVs may be repositioned based on various events (e.g., an AGV leaving the configuration, an improved arrangement being dynamically determined, etc.).

Abstract: Autonomous ground vehicles (“AGVs”) are utilized to retrieve items from transportation vehicles (e.g., delivery trucks) for delivery to specified locations (e.g., user residences, etc.). In various implementations, the AGVs may be owned by individual users and/or may service a group of users in a given area (e.g., in an apartment building, neighborhood, etc.). The AGVs may travel out (e.g., from a user's residence, apartment building, etc.) to meet a transportation vehicle (e.g., a delivery truck on the street) to receive items, and may be joined by other AGVs that have traveled out to meet the transportation vehicle, and may line up in a particular order (e.g., according to delivery addresses, etc.). After the items are received, the AGVs may travel back (e.g., to the user residences) to deliver the items, and may be equipped to open and close access barriers (e.g., front doors, garage doors, etc.).

Abstract: Methods and apparatus for on-demand customization of products. A product distributor may provide a product customization service and user interface to its customers that may be used to enhance, extend, customize, or combine stock physical products offered by the product distributor by providing custom add-on physical items for or customizations to the stock products. The product distributor may leverage on-demand production technologies such as additive manufacturing technologies to produce the custom physical items or customizations according to specifications received from the customer or generated according to descriptive information for the stock products. The custom items may be combined with one or more stock products to produce customized products for the customers.

Abstract: Methods and apparatus for on-demand customization of products. A product distributor may provide a product customization service and user interface to its customers that may be used to enhance, extend, customize, or combine stock physical products offered by the product distributor by providing custom add-on physical items for or customizations to the stock products. The product distributor may leverage on-demand production technologies such as additive manufacturing technologies to produce the custom physical items or customizations according to specifications received from the customer or generated according to descriptive information for the stock products. The custom items may be combined with one or more stock products to produce customized products for the customers.

Abstract: Disclosed are various embodiments that employ application fingerprinting and lifestyle fingerprinting, where each application fingerprint is associated with a corresponding application and is generated based at least in part on a static analysis and a dynamic analysis of the corresponding application. In one embodiment, an identification of an application is received, and a group of users are determined that have a preference for the application based at least in part on lifestyle fingerprint data and application fingerprint data. Correspondingly, a particular user is identified with a lifestyle fingerprint that is similar to lifestyle fingerprints of the group of users, whereby the particular application is transmitted to the particular user.

Abstract: A mobile base is provided that travels through delivery areas and utilizes associated transportation units (e.g., automated aerial vehicles) for delivering items from the mobile base to user specified delivery locations. The transportation units may be carried on the mobile base, or may be stationed in specific geographic areas, and may travel back and forth to the mobile base when making deliveries. The mobile base may include an automatic storage and retrieval system for automatically presenting items at an extraction point (e.g., on the roof of the mobile base), where items may be engaged by transportation units for delivery.

Abstract: An application manager provides anonymized user profile information to third party adaptive software applications. As a result, a software developer may produce a single software application that is adapted to run in a first mode providing full-functionality for use by adults and a second mode providing appropriate privacy and content restrictions for use by children. The mode is selected at run-time based on the anonymized user profile information received from the application manager.

Abstract: Disclosed are various embodiments for developing versions of applications based on application fingerprinting. For example, an application may be ported from one operating system platform to another, or an application may be modified to be compatible with a specific device. In one embodiment, an application fingerprint is received for an application. The application fingerprint may be generated based at least in part on a static analysis of the application and a dynamic analysis of the application. A device that is incompatible with the application based at least in part on the application fingerprint may be determined. A modification to the application to make the application compatible with the device may be determined.

Abstract: Autonomous ground vehicles (“AGVs”) are utilized to retrieve items from transportation vehicles (e.g., delivery trucks) for delivery to specified locations (e.g., user residences, etc.). In various implementations, the AGVs may be owned by individual users and/or may service a group of users in a given area (e.g., in an apartment building, neighborhood, etc.). The AGVs may travel out (e.g., from a user's residence, apartment building, etc.) to meet a transportation vehicle (e.g., a delivery truck on the street) to receive items, and may be joined by other AGVs that have traveled out to meet the transportation vehicle, and may line up in a particular order (e.g., according to delivery addresses, etc.). After the items are received, the AGVs may travel back (e.g., to the user residences) to deliver the items, and may be equipped to open and close access barriers (e.g., front doors, garage doors, etc.).

Abstract: Functionality is disclosed herein for using a context sensitive framework to identify relevant applications to a current context and to provide data received from the relevant applications to a user. Instead of a user having to manually locate and launch an application, relevant applications determined by a contextual service may provide data in response to receiving the context data. The applications that are identified as relevant to the context determine the application data to provide to the contextual service. The contextual service selects at least a portion of the application data to provide for display within a user interface. In some configurations, the selected application data is displayed within a user interface that maintains a same look and feel regardless of the application data that is displayed.

Abstract: Functionality is disclosed herein for using a context sensitive framework to identify relevant applications to a current context and to provide data received from the relevant applications to a user. Instead of a user having to manually locate and launch an application, relevant applications determined by a contextual service may provide data in response to receiving the context data. The applications that are identified as relevant to the context determine the application data to provide to the contextual service. The contextual service selects at least a portion of the application data to provide for display within a user interface. In some configurations, the selected application data is displayed within a user interface that maintains a same look and feel regardless of the application data that is displayed.

Abstract: A mobile base is provided that travels through areas for receiving items (e.g., from merchants, vendors, returns of items from users, etc.), wherein the items are transported to the mobile base by associated transportation units (e.g., automated aerial vehicles). The transportation units may be carried on the mobile base or may be stationed locally. Once an item is received by a transportation unit or at the mobile base, a credit or other payment may be issued to the supplier of the item, and the item may be recorded as available for sale in an inventory database. The mobile base may transport the received items to a materials handling facility, or the received items may be sold directly from the mobile base, for which transportation units may subsequently be utilized to transport the items to user specified delivery locations.

Abstract: In various embodiments, static, dynamic, and behavioral analyses may be performed on an application. A set of code fragments employed by the application may be determined. A set of device resources employed by the application may be determined. An application fingerprint is generated for the application and potentially malicious component and/or behaviors are identified. The application fingerprint encodes identifiers for the set of code fragments and identifiers for the set of device resources.

Abstract: A game spectating system that provides interfaces and methods for providing game content to viewers. The spectating system obtains game metadata from game systems for games being broadcast by the spectating system according to the API, and generates broadcast content based at least in part on the game metadata. The broadcast content includes user interface (UI) elements for obtaining virtual or physical objects corresponding to the game content. The broadcast content is provided to spectator devices with the broadcasts. The spectating system receives indications of spectators' interactions with the broadcast content from the spectator devices including interactions requesting the virtual or physical objects, and facilitates provisioning or delivery of the objects to respective spectator devices or spectators.

Abstract: A spectating system that generates game inputs based on spectator inputs and interactions, and provides the game inputs to game systems according to an application programming interface (API). The spectating system may allow spectators to interact with and affect a game being broadcast via inputs to and interactions with user interface (UI) elements presented on the spectating UI. Spectators may affect or influence the game, objects within the game universe, events within the game, or the players in the game via the UI elements on the spectating UI. The spectators may become involved in the games being broadcast by influencing game play via the spectating inputs. Game play for the players may be enhanced by providing interesting variations in game play based on the spectating inputs.

Abstract: A spectating system that generates game inputs based on spectating inputs and provides the game inputs to game systems according to an application programming interface (API). The spectating inputs may include spectator participation statistics, text chat inputs, audio inputs, and spectator interactions with a spectating user interface. The game inputs may include random numbers based on the spectating inputs that may be used as entropy sources for games. The game inputs may also include parameter inputs that provide values for parameters in the game based on spectating inputs. The spectators may become involved in the games being broadcast by influencing game play via the spectating inputs. Game play for the players may be enhanced by providing interesting variations in game play based on the spectating inputs.