Abstract:
A mobile computing device with a mobile operating system and desktop operating system running concurrently and independently on a shared kernel without virtualization. The mobile operating system provides a user experience for the mobile computing device that suits the mobile environment. The desktop operating system provides a full desktop user experience when the mobile computing device is docked to a second user environment. Cross-environment rendering and user interaction support provide a seamless computing experience in a multi-operating system computing environment. User interaction support includes handling input events initially received in the shared kernel by accepting the input events in the desktop operating system and translating, mapping, and/or passing the input events through a virtual input device to the mobile operating system such that applications of the mobile operating system receive the input events as if coming from a user interaction space of the mobile operating system. The mobile computing device may be a smartphone running the Android mobile operating system and a full desktop Linux distribution on a modified Android kernel.
Abstract:
Control of a plurality of displays of a computing device in response to the change in orientation of the computing device. The computing device may be a handheld computing device with a plurality of displays that are concurrently visible by a user. The displays may be capable of displaying a graphical user interface (GUI). The plurality of displays may be modified in response to a change in orientation of the handheld computing device. The modification may include expanding a GUI that is displayed in a single display when in a first orientation to occupy at least two of the plurality of displays in response to the change in orientation.
Abstract:
Presented are systems and methods for wireless data acquisition. The wireless data acquisition may involve synchronizing modules within a data acquisition array. The synchronized data acquisition array may be used to facilitate a seismic survey. Synchronization may be facilitated by receipt of a reference time event such that a clock is synchronized based on the reference time event.
Abstract:
Systems and methods are disclosed for testing acoustic systems. A method for testing an acoustic system can include receiving a signal from the acoustic system at a testing device coupled with the acoustic system via one of a plurality of channels between the acoustic system and the testing device. The signal can include a pattern of pulses. At least one pulse from the pattern of pulses of the signal can be detected with the testing device. A response to the signal from the acoustic system can be provided by generating an echo pulse with the testing device based on the detected at least one pulse. The echo pulse can mimic a response to the detected at least one pulse for a selected acoustic probe.
Abstract:
Apparatuses, systems and methods for limiting mobile device functionality in defined environments. One system includes a detection structure or arrangement for detecting illicit mobile device RF transmissions and/or an operating state in relation to a defined environment, and an interference or disabling structure or arrangement for at least partially disabling the functionality of the mobile device upon detection of an illicit mobile device RF transmission or a particular operating state. For instance, the system may be implemented in an automobile or aircraft cabin to prevent drivers and/or passengers from utilizing at least one functionality of a mobile device (e.g., talking, texting, internet surfing).
Abstract:
The present invention is directed to implantable hearing aid systems and provides for selective interconnection between two or more implantable components of a system. The inventive apparatus comprises a first connector interconnected to a distal end of a first signal cable (107) that is connected to a first implantable component (100) and a second connector interconnected to a distal end of a second signal cable (106) that is connected to a second implantable component (108). To facilitate routing of the signal cables, the connectors are designed such that distal portions ( e.g. , mating ends) of the first and second signal cables (106, 107) may be juxtaposed ( e.g. , disposed side-by-side) when interconnected.
Abstract:
A precision radar registration (PR 2 ) system and method that employs highly accurate geo-referenced positional data as a basis for correcting registration bias present in radar data. In one embodiment, the PR 2 method includes sample collection and bias computation function processes. The sample collection process includes ADS-B sample collection, radar sample collection, and time alignment sub-processes. The bias computation function process includes bias computation, quality monitoring and non-linear effects monitoring sub-processes. The bias computation sub-process results in a bias correction solution including range bias b p , azimuth bias bq, and time bias b T parameters. The quality monitoring sub-process results in an estimate of solution quality. The non-linear effects monitoring sub-process results in detection of the presence of non-linear bias, if any, in the bias correction solution.
Abstract:
A process of developing a computer network based universal reservation system. In one embodiment, such a process includes the steps of obtaining a service interface broker, providing a service offering system that a service developer wants included in the computer network based universal reservation system with functionality of the service offering system being extended by functionality provided by the service interface broker, obtaining a marketplace interface broker, and providing a marketplace system that a marketplace supplier wants included in the computer network based universal reservation system with functionality of the marketplace system being extended by functionality provided by the marketplace interface broker.
Abstract:
The present invention provides apparatuses and methods that facilitate the determination of a hydrostatic correction factor usable in an EBPR examination of a patient in a non-supine position. In one embodiment, a first blood pressure measuring device may be positionable on a first extremity of the patient, and a second blood pressure measuring device may be positionable on a second extremity of the patient, with one of the blood pressure measuring devices being located above the other one. The apparatus includes a locating mechanism that fixes a position of at least one of the first and second blood pressure measuring devices relative to its respective patient extremity. The apparatus also includes an instrumentality that provides information about a vertical distance between the first and second blood pressure measuring devices. The vertical distance is usable in determining the hydrostatic correction factor.
Abstract:
An internal combustion engine (100) including a low thermal capacity, low thermal conductivity insulating liner (114) is provided. The insulating liner (114) may be positioned to line the combustion chamber (113) and a portion of the cylinder wall (106). The insulating liner (114) may comprise a high aspect morphology sintered ceramic material and may further include a surface coating. The internal combustion engine (100) may be a four-stroke diesel engine with variable valve timing operating using an asymmetric cycle. Through the asymmetric cycle and insulative properties of the insulating liner (114), the heat loss of the disclosed internal combustion engine (100) is significantly less than that of a similar conventional internal combustion engine, resulting in significant efficiency improvements.