155 results about "Orientation sensing" patented technology

A system and method is disclosed for reconfiguring the graphical user interface (GUI) of a mechanically vibrated touchscreen display associated with a portable mobile communications device that is operable in a variety of modes. The reconfiguration of the GUI is based on the orientation of the portable mobile communications device. An orientation sensing mechanism senses whether the portable mobile communications device is currently in a portrait or landscape orientation. An orientation sensing application accesses an orientation profile that associates each mode of operation with either a portrait or landscape orientation and determines which mode of operation is the default mode for the sensed orientation of the portable mobile communications device. The GUI of the mechanically vibrated touchscreen display is then reconfigured for the default mode of operation.

An arrangement for disabling suitably equipped mobile devices senses at least one of: acceleration, jerk, velocity, position, orientation relative to a vehicle location trend, and orientation of a direction of motion. Position and orientation sensing elements are becoming increasingly prevalent in mobile devices, be they cell phones, smart phones, portable Internet devices, portable wireless devices, mobile Internet devices, Portable Navigation Devices (PND), iPhones, tablet computers, iPads, or Portable Digital Assistants (PDA). Although the operation of which while driving is illegal in many jurisdictions, mobile devices continue to be used by drivers of motor vehicles. Common perception is that it is dangerous to divide one's attention to activities other than the task of operating motor vehicles, while driving. The present invention discloses a device and method of exploiting intricacies of vehicle movement trends by processing to sufficient fidelity as to permit extraction an indication of location with respect to vehicle, of a navigating portable wireless device and temporarily disable. The disclosure teaches use of at least one of: acceleration, jerk, velocity with sufficient fidelity, and differentiation of position updates with sufficient fidelity.

Described are high precision gap and orientation measurement methods between a template and a substrate used in imprint lithography processes. Gap and orientation measurement methods presented here include uses of broad-band light based measuring techniques.

An electronic device has an orientation sensing system for determining an orientation of the device. The system comprises a magnetometer and an accelero meter. The system further has calibration means to calibrate the sensing system for operational use. The accelerometer supplies measurements used to constrain a range of possible directions of the external magnetic field to be determined. The calibration means numerically solves a set of equations and is equally well useable for a 2D or 3D magnetometer in combination with a 2D or 3D accelerometer.

A remote control device is provided that is configured for use in a load control system that includes one or more electrical loads. The remote control device includes a mounting structure and a control unit, and the control unit is configured to be attached to the mounting structure in a plurality of different orientations. The control unit includes a user interface, an orientation sensing circuit, and a communication circuit. The control unit is configured to determine an orientation of the control unit via the orientation sensing circuit. The control unit is also configured to translate a user input from the user interface into control data to control an electrical load of the load control system based on the orientation of the control unit and / or provide a visual indication of an amount of power delivered to the electrical load based on the orientation of the control unit.

A robotic apparatus for traversing a selected area autonomously that senses orientation relative to “environmental” signals. The robotic apparatus is provided in two models, a master that can record directive and “environmental signal” readings, or that can record received location information, to provide at least one command recorded on a machine-readable medium representing an instruction for traversing an area of interest, and a slave that lacks the recording capability. Both master and slave models can replay recorded commands, and compare the expected orientation from the command with an actual orientation sensed during autonomous operation. If an error exceeding a predetermined value is observed, a corrective action is taken. The robotic apparatus is able to utilize a tool to perform a task.

A solar powered sign annunciator comprised of a plurality of high intensity light emitting diodes (LED); a microprocessor controller to regulate power consumption and annunciator characteristics, battery charging and sensor response with an integrated software charge controller; a minimalized solar panel array sized to produce sufficient power for battery charging under normalized solar radiation to latitudes as far north as 45 degrees; a direction sensing Doppler radar to determine the approach of traffic; a low voltage battery to minimize power control losses to the LED array; a temperature sensor to determine proper charging battery status and battery capacity; and a plurality of analog to digital (A / D) converters incorporated in the microprocessor to sense solar power output, temperature input, battery voltage and charging current and Doppler phase shift differential. The system also includes a housing arrangement to incorporate all aforementioned items in a weathertight enclosure providing sufficient horizontal surface for solar cell attachment yet in a package compact enough to easily attach to existing designed signs.

A welding system includes an orientation sensing system associated with a welding torch and is configured to sense a welding torch orientation relative to a direction of gravity. The welding system also includes a processing system communicatively couple to the orientation sensing system and configured to determine an angular position of the welding torch relative to a pipe based at least in part on the sense welding torch orientation.

At least one embodiment is directed to a tracking system for the muscular-skeletal system. The tracking system can identify position and orientation. The tracking system can be attached to a device or integrated into a device. In one embodiment, the tracking system couples to a handheld tool. The handheld tool with the tracking system and one or more sensors can be used to generate tracking data of the tool location and trajectory while measuring parameters of the muscular-skeletal system at an identified location. The tracking system can be used in conjunction with a second tool to guide the second tool to the identified location of the first tool. The tracking system can guide the second tool along the same trajectory as the first tool. For example, the second tool can be used to install a prosthetic component at a predetermined location and a predetermined orientation. The tracking system can track hand movements of a surgeon holding the handheld tool within 1 millimeter over a path less than 5 meters.

An electronic device and a temperature modulation method are disclosed herein. The electronic device includes a system body, a heat pipe module, a fan module, an orientation sensor, a temperature sensor and a control module. The system body includes an electronic component. The heat pipe module is connected to the electronic component. The fan module is installed in the system body. The orientation sensor can detect an orientation of the system body and output an orientation-sensing signal based on the orientation. The temperature sensor can detect a temperature of the heat pipe module and output a temperature-sensing signal based on the temperature. The control module can control rotation of the fan module according to at least one of the orientation-sensing signal and the temperature-sensing signal.

A drilling apparatus includes an upper drill string, a lower drill string including a rotary drilling motor, an orientable rotatable connection between the drill strings, a reactive torque control device associated with the orientable rotatable connection, an orientation sensing device for providing a sensed actual orientation of the lower drill string, and a feedback control system configured to actuate the control device in response to the sensed actual orientation to achieve a target orientation of the lower drill string. A drilling method includes actuating the control device to prevent relative rotation of the drill strings, providing a sensed actual orientation of the lower drill string, comparing the sensed actual orientation with a target orientation of the lower drill string, actuating the control device to allow the lower drill string to rotate to provide the target orientation, and actuating the control device to prevent relative rotation of the drill strings.

Magnetic tracking systems and methods for determining the position and orientation of a remote object. A magnetic tracking system includes a stationary transmitter for establishing a reference coordinate system, and at least one receiver. The remote object is attached to, mounted on, or otherwise coupled to the receiver. The transmitter can include a set of three mutually perpendicular coils having a common center point, or a set of three coplanar coils with separate centers. The receiver can include a set of three orthogonal coils. The position and orientation of the receiver and the remote object coupled thereto is determined by measuring the nine mutual inductances between the three transmitter coils and the three receiver coils. The magnetic tracking system provides reduced power consumption, increased efficiency, digital compensation for component variation, automatic self-calibration, automatic synchronization with no connections between transmitter and receiver, and rapid low-cost implementation.

A robotic apparatus for traversing a selected area autonomously that senses orientation relative to the Earth's magnetic field or other “environmental” signals. The robotic apparatus is provided in two models, a master that can record directive and compass or “environmental signal” readings to provide at least one command recorded on a machine-readable medium representing an instruction for traversing an area of interest, and a slave that lacks the recording capability. Both master and slave models can replay recorded commands, and compare the expected orientation from the command with an actual orientation sensed during autonomous operation. If an error exceeding a predetermined value is observed, a corrective action is taken. The robotic apparatus is able to utilize a tool to perform a task at one or more locations, such as cutting, shoveling and digging. In one embodiment, the robotic apparatus is a lawn mower.

A robotic apparatus for traversing a selected area autonomously that senses orientation relative to the Earth's magnetic field or other “environmental” signals. The robotic apparatus is provided in two models, a master that can record directive and compass or “environmental signal” readings, or that can record received location information, to provide at least one command recorded on a machine-readable medium representing an instruction for traversing an area of interest, and a slave that lacks the recording capability. Both master and slave models can replay recorded commands, and compare the expected orientation from the command with an actual orientation sensed during autonomous operation. If an error exceeding a predetermined value is observed, a corrective action is taken. The robotic apparatus is able to utilize a tool to perform a task at one or more locations, such as cutting, shoveling and digging. In one embodiment, the robotic apparatus is a lawn mower.

A position and orientation of a projector are determined from projected images. First, a homography between a camera and a planar surface, where the relationship between the camera and planar surface is fixed, is determined. Next, a known pattern is projected on the planar surface with a projector having known intrinsic parameters and an unknown position and orientation. An image of the known pattern is acquired with the camera, and a position and orientation of the projector is determined from the image using the homography and the intrinsic parameters.

The invention relates to a portable electronic device and a backlight control method thereof. The portable electronic device is provided with a display, a backlight module, an orientation sensor and an optical sensor. The backlight control method comprises the following steps: supplying backlight to the display through the backlight module; generating an orientation sensing signal through the orientation sensor according to the orientation of the portable electronic device in space; generating an optical sensing signal through the optical sensor according to light rays outside the portable electronic device; and opening or closing the backlight module according to the orientation sensing signal and the optical sensing signal.

A data transferring system includes a reading unit, a display unit, a selecting unit, an orientation sensing unit, an analyzing unit and a transferring unit. The reading unit is configured for reading contents. The display unit is configured for displaying the read contents to allow selection of contents. The selecting unit is configured for selecting contents in response to user inputs. The orientation sensing unit is configured for sensing the orientation of the electronic device. The analyzing unit is configured for determining whether the electronic device is higher than the storage device based upon the sensed orientation. The transferring unit is configured for transferring selected contents from the electronic device to the storage device if the electronic device is higher than the storage device and transferring selected contents from the storage device to the electronic device if the electronic device is lower than the storage device.

A position sensor using a novel optical path array (OPA) element, an angle-selective spatial filter, and an imaging array is capable of measuring the translation and orientation relative to a target member in X, Y, Z, yaw, pitch, and roll (“6D”) simultaneously, and with high precision. A target member includes an array of target points surrounded by a contrasting surface. The position sensor uses the OPA element in combination with the angle-selective spatial filter in a target point imaging arrangement such that the imaging array of the position sensor only receives light rays that enter the OPA element according to an operable cone angle α. Accordingly, each target point generally produces a ring-shaped image having a size on the imaging array that varies with the Z position of each target point. The X-Y position of each target point image on the imaging array varies with the X-Y position of each target point. Accordingly, three or more target point images analyzed in the same image are usable to determine a 6D measurement relative to the target member. X and Y displacement of the target member can be accumulated by known methods and the other 6D measurement components are absolute measurements at any position.

The invention relates to a multi-touch input device with orientation sensing. The multi-touch orientation sensing input device may enhance task performance efficiency. The multi-touch orientation sensing input device may include a device body that is partially enclosed or completely enclosed by a multi-touch sensor. The multi-touch orientation sensing input device may further include an inertia measurement unit that is disposed on the device body, The inertia measurement unit may measures a tilt angle of the device body with respect to a horizontal surface, as well as a roll angle of the device body along a length-wise axis of the device body with respect to an initial point on the device body.

The invention relates to an electronic device and a method for controlling functionality of such an electronic device in relation to a display unit. The electronic device includes a base unit (3); a display unit (2), an orientation sensing arrangement and an orientation determining unit. The display unit (2) has a first surface area and a second surface area (13) joined to each other by a first and second opposite bounding side and is fastened to and movable in relation to the base unit (3). The orientation sensing arrangement comprises a first sensing unit (15) on the display unit (2) and a second sensing unit (16) on the base unit (3), which arrangement detects that the sensing units are able to communicate with each other and indicates this communication. The orientation determining unit then activates selected functionality of the electronic device based on the indication from the orientation sensing arrangement.

A laparoscopy simulator includes two rods and an orientation sensor that determines the orientation of the rods. An optical sensor is used to determine measurements of each rod based on the rotation of the rod around a central axis of the rod and a sliding of the rod along the central axis. An accelerometer is used to determine additional measurements of each rod based on a rotation of the rod around two additional rotation axes of the simulator. The measurements are used to determine the overall orientation of the rods.

An airborne geophysical surveying system comprising a receiver coil assembly for towing by an aircraft, the receiver assembly including a receiver coil for sensing changes in a magnetic field component of a magnetic field, and a receiver coil orientation sensing system for sensing orientation changes of the receiver coil. A controller receives signals representing the sensed changes in the magnetic field component from the receiver coil and the sensed orientation changes from the receiver coil orientation sensing system and corrects the sensed changes in the magnetic field component to provide a signal that is corrected for noise caused by changing orientation of the receiver coil in a static geomagnetic field.