Abstract: The prevention of fraudulent registrations of interactions with content begins with receiving the content on a client computer system for rendering thereon. The content includes a fraud detection client executed by the client computer system in conjunction with the rendering of the content. An input corresponding to an interaction with the content is received, followed by capturing motion sensor data from the client computer system with the fraud detection client contemporaneously with receiving the input corresponding to the interaction with the content. The captured motion sensor data is transmitted to a fraud detection server. The legitimacy of the interaction with the content is validated on the fraud detection server. This validation is based upon an evaluation of the captured motion sensor data in comparison to a set of one or more sensor data conditions.

Abstract: A method and apparatus for governing sensor data readings from a plurality of input sensors onboard a communications device. An inventory of available input sensors is generated, and a set of requested input sensors from an application running on the communications device is received. The requested input sensors that are absent from the inventory of available input sensors is identified, and based upon received measured values from the available input sensors, equivalent values for those absent input sensors are derived. The accuracy and precision of the measured and equivalent sensor values are estimated, and those measurements not meeting certain thresholds are filtered. The measured values and the derived equivalent values meeting the predetermined thresholds for accuracy and precision, and the filtered measured values and the filtered derived equivalent values are output to the application.

Abstract: The selectively aggregation of augmented reality objects in a live camera view involves receiving a plurality of augmented reality objects in response to a query. Each of the augmented reality objects are associated with an object location on a map. A viewpoint location of a mobile computing device displaying a live camera view is received. For each of the augmented reality objects, a display location within the live camera view is calculated from the object location of the augmented reality object and the viewpoint location. An aggregate marker is displayed within the live camera view in response to the display locations of two or more of the augmented reality objects differing by less than a threshold.

Abstract: An apparatus for generating a graphical representation of a motion input applied to one or more sensors includes a touch input display screen and a motion input capture module receptive to data corresponding to the motion input applied to and detected by the one or more sensors. A graphical user interface is generated on the touch input display screen with a view of a virtual three-dimensional space displayed thereon, and has a virtual space viewing mode and a brush stroke input mode. In the virtual space viewing mode, the view of the virtual three-dimensional space is adjustable in response to motion input. In the brush stroke input mode, a stroke path defined by a plurality of position points within the virtual three-dimensional space and derived from data corresponding to the motion input is generated.

Abstract: A gyroscope apparatus for a device including an accelerometer and a magnetic component has a gravity vector generator connected to the accelerometer and receptive to acceleration readings therefrom. A magnetic component output generator is connected to the magnetic component and receptive to magnetic component readings. A sensor fusion engine is connected to the gravity vector generator and to the magnetic component output generator, with a gravity vector value and a magnetic field vector value at a first time instance being combined to represent a first orientation value. The gravity vector value and the magnetic field vector value at a second time instance are combined to represent a second orientation value. An orientation rate of change is derived from a difference between the first orientation value and the second orientation value.

Abstract: The presentation of interaction sequences to a user on a mobile communications device is disclosed. A first external input corresponding to a triggering of an interaction sequence delivery is received on a first input modality. An overlay is displayed in a graphical user interface in response to receiving the external input. Interaction sequence invocation instructions are displayed within the overlay. A second external input is received on a second input modality different from the first input modality. The second external input is translated to a set of quantified values. An interaction sequence results content is then displayed within the overlay in response to a substantial match between the set of quantified values translated from the received second external input to the set of predefined values corresponding to the interaction sequence invocation instructions.

Abstract: A method for producing a gesture-controlled augmented reality experience using a first mobile communications device includes receiving a motion sensor input on a motion sensor input modality of the first mobile communications device, calculating a trajectory of a camera of the first mobile communications device in response to the received motion sensor input, receiving a visual input captured by the camera of the first mobile communications device, translating a gesture of a user into a set of quantified values based on the received visual input and the calculated trajectory of the camera, and controlling an augmented reality object within a three-dimensional virtual environment in response to a substantial match between the set of quantified values and a set of predefined values.

Abstract: A multiple streaming camera interface system includes a data processor and a network interface that establishes a data link to a streaming server. The streaming server is in communication with one or more camera streams generated by corresponding ones of imaging devices capturing footage from specific locations. A streaming client is connectible to the streaming server over the data link. The one or more camera streams are selectively relayed by the streaming server to the streaming client. A graphical interface is executed by the data processor, and a first one of the one or more camera streams, which includes a hotspot to a second one of the one or more camera streams, is displayed on the graphical interface. In response to an activation of the hotspot, the second one of the one or more camera streams is displayed on the graphical interface.

Abstract: A gyroscope apparatus for a device including an accelerometer and a magnetic component has a gravity vector generator connected to the accelerometer and receptive to acceleration readings therefrom. A magnetic component output generator is connected to the magnetic component and receptive to magnetic component readings. A sensor fusion engine is connected to the gravity vector generator and to the magnetic component output generator, with a gravity vector value and a magnetic field vector value at a first time instance being combined to represent a first orientation value. The gravity vector value and the magnetic field vector value at a second time instance are combined to represent a second orientation value. An orientation rate of change is derived from a difference between the first orientation value and the second orientation value.

Abstract: The presentation of interaction sequences to a user on a mobile communications device is disclosed. A first external input corresponding to a triggering of an interaction sequence delivery is received on a first input modality. An overlay is displayed in a graphical user interface in response to receiving the external input. Interaction sequence invocation instructions are displayed within the overlay. A second external input is received on a second input modality different from the first input modality. The second external input is translated to a set of quantified values. An interaction sequence results content is then displayed within the overlay in response to a substantial match between the set of quantified values translated from the received second external input to the set of predefined values corresponding to the interaction sequence invocation instructions.

Abstract: A multiple streaming camera interface system includes a data processor and a network interface that establishes a data link to a streaming server. The streaming server is in communication with one or more camera streams generated by corresponding ones of imaging devices capturing footage from specific locations. A streaming client is connectible to the streaming server over the data link. The one or more camera streams are selectively relayed by the streaming server to the streaming client. A graphical interface is executed by the data processor, and a first one of the one or more camera streams, which includes a hotspot to a second one of the one or more camera streams, is displayed on the graphical interface. In response to an activation of the hotspot, the second one of the one or more camera streams is displayed on the graphical interface.

Abstract: A method for driving user interface elements on a graphical display of a mobile device based upon spatial motion input applied to a sensor unit. Motion data, which is generated by one or more motion sensors on board the sensor unit and corresponds to the spatial motion input applied to the sensor unit, is received on a data processor of the mobile device. A filter is applied to the received motion data to minimize rapid fluctuations therein. Velocity values and position values are generated based on a discrete integration of the filtered motion data. A balance between acceleration and deceleration of the sensor unit is detected, based upon an evaluation of the velocity values from a beginning of the spatial motion input and velocity values during deceleration. A deceleration response is output to the graphical display to correspond to the detected balance between acceleration and deceleration of the sensor unit.

Abstract: A method for producing a gesture-controlled augmented reality experience using a first mobile communications device includes receiving a motion sensor input on a motion sensor input modality of the first mobile communications device, calculating a trajectory of a camera of the first mobile communications device in response to the received motion sensor input, receiving a visual input captured by the camera of the first mobile communications device, translating a gesture of a user into a set of quantified values based on the received visual input and the calculated trajectory of the camera, and controlling an augmented reality object within a three-dimensional virtual environment in response to a substantial match between the set of quantified values and a set of predefined values.

Abstract: The presentation of interaction sequences to a user on a mobile communications device is disclosed. A first external input corresponding to a triggering of an interaction sequence delivery is received on a first input modality. An overlay is displayed in a graphical user interface in response to receiving the external input. Interaction sequence invocation instructions are displayed within the overlay. A second external input is received on a second input modality different from the first input modality. The second external input is translated to a set of quantified values. An interaction sequence results content is then displayed within the overlay in response to a substantial match between the set of quantified values translated from the received second external input to the set of predefined values corresponding to the interaction sequence invocation instructions.

Abstract: A method and apparatus for governing sensor data readings from a plurality of input sensors onboard a communications device. An inventory of available input sensors is generated, and a set of requested input sensors from an application running on the communications device is received. The requested input sensors that are absent from the inventory of available input sensors is identified, and based upon received measured values from the available input sensors, equivalent values for those absent input sensors are derived. The accuracy and precision of the measured and equivalent sensor values are estimated, and those measurements not meeting certain thresholds are filtered. The measured values and the derived equivalent values meeting the predetermined thresholds for accuracy and precision, and the filtered measured values and the filtered derived equivalent values are output to the application.

Abstract: A method for producing a gesture-controlled augmented reality experience using a first mobile communications device includes receiving a motion sensor input on a motion sensor input modality of the first mobile communications device, calculating a trajectory of a camera of the first mobile communications device in response to the received motion sensor input, receiving a visual input captured by the camera of the first mobile communications device, translating a gesture of a user into a set of quantified values based on the received visual input and the calculated trajectory of the camera, and controlling an augmented reality object within a three-dimensional virtual environment in response to a substantial match between the set of quantified values and a set of predefined values.

Abstract: A method for driving user interface elements on a graphical display of a mobile device based upon spatial motion input applied to a sensor unit. Motion data, which is generated by one or more motion sensors on board the sensor unit and corresponds to the spatial motion input applied to the sensor unit, is received on a data processor of the mobile device. A filter is applied to the received motion data to minimize rapid fluctuations therein. Velocity values and position values are generated based on a discrete integration of the filtered motion data. A balance between acceleration and deceleration of the sensor unit is detected, based upon an evaluation of the velocity values from a beginning of the spatial motion input and velocity values during deceleration. A deceleration response is output to the graphical display to correspond to the detected balance between acceleration and deceleration of the sensor unit.

Abstract: A method and apparatus for governing sensor data readings from a plurality of input sensors onboard a communications device. An inventory of available input sensors is generated, and a set of requested input sensors from an application running on the communications device is received. The requested input sensors that are absent from the inventory of available input sensors is identified, and based upon received measured values from the available input sensors, equivalent values for those absent input sensors are derived. The accuracy and precision of the measured and equivalent sensor values are estimated, and those measurements not meeting certain thresholds are filtered. The measured values and the derived equivalent values meeting the predetermined thresholds for accuracy and precision, and the filtered measured values and the filtered derived equivalent values are output to the application.