Abstract: The present disclosure relates to aerosol delivery devices. The aerosol delivery devices include mechanisms configured to deliver an aerosol precursor composition from a reservoir to an atomizer including a vaporization heating element to produce a vapor. For example, a bubble jet head may be configured to dispense the aerosol precursor composition to the atomizer. The bubble jet head may be fixedly coupled to the atomizer. The bubble jet head may include a precursor inlet, an ejection heating element, and a precursor nozzle. The atomizer may include a vaporization heating element.

Abstract: The present invention describes articles, such as smoking articles, that can provide an inhalable substance in a form suitable for inhalation by a consumer. The article comprises a cartridge with an inhalable substance medium therein, control housing that includes an electrical energy source and an electrical power source, and a heating member that may be located in either the cartridge or the control housing. The control housing further may include puff-actuated current actuation components and current regulation components.

Abstract: A method for configuring network access parameters for a smart object to access a network is disclosed. The method comprises connecting, by the smart object, to a network using a first network access device. The smart object uses a wireless networking protocol to connect to the first network access device. The method further comprises authenticating the smart object with a server on the network and receiving network access information from the server. The network access information relates to a second network access device. The method further comprises using the network access information to connect to the network using the second network access device.

Abstract: A network-connected object for performing a function and communicating with a server computing device via a network includes a functional object, application-specific input/output (I/O) device, and a gateway device. The functional object is configured to perform a function. The application-specific I/O device includes an electronic circuit configured to perform an application-specific function related to the functional object. The gateway device includes a first communication device configured for data communication with the application-specific I/O device, a second communication device configured for data communication with the server computing device, at least one processing device, and at least one computer readable storage device.

Abstract: A smart object establishes communication with an application provider server computing device by sending a request to a manufacturer server computing device to identify a second server computing device; receiving a response from the first server computing device with an identifier indicating the second server computing device; and using the identifier to establish communication between the smart object and the second server computing device.

Abstract: In one embodiment, a method, of operating an implantable medical device, comprises: (i) operating reset logic within the implantable medical device that is independently operable from a processor of the implantable medical device after the implantable medical device is implanted within a patient, wherein the processor is adapted for central control of the implantable medical device; (ii) operating a magnetic field sensor in the implantable medical device; (iii) generating digital data using, at least, the magnetic field sensor; (iv) detecting, by the reset logic, a digital key in the digital data; (v) in response to (iv), asserting a reset signal on a pin of the processor by the reset logic; and (vi) conducting reset operations in the processor in response to the reset signal.

Abstract: In one embodiment, a method, of operating an implantable medical device, comprises: (i) operating reset logic within the implantable medical device that is independently operable from a processor of the implantable medical device after the implantable medical device is implanted within a patient, wherein the processor is adapted for central control of the implantable medical device; (ii) operating a magnetic field sensor in the implantable medical device; (iii) generating digital data using, at least, the magnetic field sensor; (iv) detecting, by the reset logic, a digital key in the digital data; (v) in response to (iv), asserting a reset signal on a pin of the processor by the reset logic; and (vi) conducting reset operations in the processor in response to the reset signal.

Abstract: A moveable semiconductor substrate support includes a control device receiving data from one or more sensors and providing control signals to one or more actuators. The control device is coupled to and moves with the moveable substrate support to facilitate flexible and complex operation of the substrate support itself.

Abstract: A member that facilitates the handling of semiconductor devices of arbitrary shapes and sizes by handling equipment not normally adapted to handling such devices is herein described. The member includes a base that emulates a substrate for which handling equipment is available. A fixation device on the base secures a device to the member. A vacuum structure allows a vacuum clamping system to simultaneously secure the member and a device to the handling equipment.

Abstract: A modularized intermediate communication device for a sensor network includes multiple electronic modules assembled in a stack and configured to communicate with one another. Each of the stackable electronic modules includes a housing including first and second stacking portions mechanically complementary to each other. Each module further includes a first inter-module communication connector arranged on the first stacking portion, a second inter-module communication connector arranged on the second stacking portion, and a communication device electrically connected to the first and second inter-module communication connectors and communicating with a matching electronic module using at least one communication protocol.

Abstract: A network-connected object for performing a function and communicating with a server computing device via a network includes a functional object, application-specific input/output (I/O) device, and a gateway device. The functional object is configured to perform a function. The application-specific I/O device includes an electronic circuit configured to perform an application-specific function related to the functional object. The gateway device includes a first communication device configured for data communication with the application-specific I/O device, a second communication device configured for data communication with the server computing device, at least one processing device, and at least one computer readable storage device.

Abstract: A method for configuring network access parameters for a smart object to access a network is disclosed. The method comprises connecting, by the smart object, to a network using a first network access device. The smart object uses a wireless networking protocol to connect to the first network access device. The method further comprises authenticating the smart object with a server on the network and receiving network access information from the server. The network access information relates to a second network access device. The method further comprises using the network access information to connect to the network using the second network access device.

Abstract: A smart object establishes communication with an application provider server computing device by sending a request to a manufacturer server computing device to identify a second server computing device; receiving a response from the first server computing device with an identifier indicating the second server computing device; and using the identifier to establish communication between the smart object and the second server computing device.

Abstract: A moveable semiconductor substrate support includes a control device receiving data from one or more sensors and providing control signals to one or more actuators. The control device is coupled to and moves with the moveable substrate support to facilitate flexible and complex operation of the substrate support itself.

Abstract: The Quantum Matrix system is a multi-dimensional, multi-threaded exchange environment for data organization, management, and manipulation. Data is organized into a multi-dimensional structure of nodes. Nodes may represent data, absence of data, or another set of nodes. The multi-dimensional structure or portions of it can be automatically created from a file system. One or more associations are also defined for the multi-dimensional structure. An association indicates a relationship between a node and another node, data, or a set of nodes. The multi-dimensional structure is then displayed three-dimensionally and navigated. Relational logic, Boolean algebra, or a scripting language can be applied to the nodes, data, and associations to produce a resultant set of nodes. Furthermore, portions of the multi-dimensional structure can be isolated with the use of planes to ease navigation. Furthermore, the Quantum Matrix system may have a client-server architecture, with the client running on a mobile device.

Abstract: In one embodiment, a method, of operating an implantable medical device, comprises: (i) operating reset logic within the implantable medical device that is independently operable from a processor of the implantable medical device after the implantable medical device is implanted within a patient, wherein the processor is adapted for central control of the implantable medical device; (ii) operating a magnetic field sensor in the implantable medical device; (iii) generating digital data using, at least, the magnetic field sensor; (iv) detecting, by the reset logic, a digital key in the digital data; (v) in response to (iv), asserting a reset signal on a pin of the processor by the reset logic; and (vi) conducting reset operations in the processor in response to the reset signal.

Abstract: The Quantum Matrix system is a multi-dimensional, multi-threaded exchange environment for data organization, management, and manipulation. Data is organized into a multi-dimensional structure of nodes. Nodes may represent data, absence of data, or another set of nodes. The multi-dimensional structure or portions of it can be automatically created from a file system. One or more associations are also defined for the multi-dimensional structure. An association indicates a relationship between a node and another node, data, or a set of nodes. The multi-dimensional structure is then displayed three-dimensionally and navigated. Relational logic, Boolean algebra, or a scripting language can be applied to the nodes, data, and associations to produce a resultant set of nodes. Furthermore, portions of the multi-dimensional structure can be isolated with the use of planes to ease navigation. Furthermore, the Quantum Matrix system may have a client-server architecture, with the client running on a mobile device.

Abstract: The Quantum Matrix system is a multi-dimensional, multi-threaded exchange environment for data organization, management, and manipulation. Data is organized into a multi-dimensional structure of nodes. Nodes may represent data, absence of data, or another set of nodes. The multi-dimensional structure or portions of it can be automatically created from a file system. One or more associations are also defined for the multi-dimensional structure. An association indicates a relationship between a node and another node, data, or a set of nodes. The multi-dimensional structure is then displayed three-dimensionally and navigated. Relational logic, Boolean algebra, or a scripting language can be applied to the nodes, data, and associations to produce a resultant set of nodes. Furthermore, portions of the multi-dimensional structure can be isolated with the use of planes to ease navigation.

Abstract: The Quantum Matrix system is a multi-dimensional, multi-threaded exchange environment for data organization, management, and manipulation. Data is organized into a multi-dimensional structure of nodes. Nodes may represent data, absence of data, or another set of nodes. The multi-dimensional structure or portions of it can be automatically created from a file system. One or more associations are also defined for the multi-dimensional structure. An association indicates a relationship between a node and another node, data, or a set of nodes. The multi-dimensional structure is then displayed three-dimensionally and navigated. Relational logic, Boolean algebra, or a scripting language can be applied to the nodes, data, and associations to produce a resultant set of nodes. Furthermore, portions of the multi-dimensional structure can be isolated with the use of planes to ease navigation.