Abstract: Systems, devices, media, and methods are described for capturing a series of video clips, together with position, orientation, and motion data collected from an inertial measurement unit during filming. The methods in some examples include calculating camera orientations based on the data collected, computing a stabilized output path based on the camera orientations, and then combining the video segments in accordance with said stabilized output path to produce a video composition that is stable, short, and easy to share. The video clips are filmed in accordance with a set of conditions called a capture profile. In some implementations, the capture profile conditions are reactive, adjusting in real time, during filming, in response to sensor data gathered in real time from a sensor array.

Abstract: A magnetic field sensor for measuring a variable magnetic field, in particular for a movement sensor or position sensor, has a magnetoresistive sensor chip and a flat sensor carrier carrying the sensor chip. The carrier has an upper side from which the sensor chip is electrically contactable, the upper side of the sensor carrier having a recess or depression in which the sensor chip is arranged. The sensor chip is electrically contactable from the upper side and that the sensor chip receives a magnetic field to be measured via an underside of the sensor carrier. A manufacturing method for manufacturing an above magnetic field sensor and a measuring method are proposed.

Abstract: A resettable bipolar switch sensor is disclosed which comprises a bipolar magnetic hysteresis switch sensor, a reset coil, an ASIC switch circuit and a power reset circuit. The bipolar magnetic hysteresis switch sensor comprises a substrate and a magnetoresistive sensing arm located on the substrate. The magnetoresistive sensing arm is of a two-port structure composed of one or more magnetoresistive sensing unit strings arranged in series, parallel, or series-parallel. The magnetization direction of a free layer of a TMR magnetoresistive sensing unit is determined by an anisotropy field Hk, and together with the magnetization direction of a reference layer and the applied magnetic field, it can orient in an N or S direction. The reset coil is located between the substrate along with the magnetoresistive sensing unit, or it is located on a lead frame below the substrate. The direction of the reset magnetic field is either N or S.

Abstract: A method for performing an inspection of a utility asset includes obtaining current magnetic signature data for at least one electrical asset; comparing the current magnetic signature data to a model describing an expected change in the electrical asset's magnetic signature over time; and determining a current state-of-wear of the at least one electrical asset based on the comparison to the model.

Abstract: A carrier device includes a base plate fixedly attachable to a window pane and a carrying arrangement, for holding a housing of a sensor device, that includes a clip element configured for retaining a rod-shaped component disposed at an end of the housing. The clip element is formed by two legs extending from the base plate. The ends of the legs remote from the base plate define an entry region for the rod-shaped component that is adjoined, in a direction toward the base plate, by a receiving space which is laterally bounded by concavely shaped receiving contours formed in the two legs in this region. The base plate has a counter-bearing disposed thereon which has a concavely shaped support region for supporting the rod-shaped component. The counter-bearing is located on a side of the clip element adjacent the housing when the sensor device is in a mounted position.

Abstract: A portable probe stand assembly including a hand-held frame, a gravity tilt unit, and a probe holder. The hand-held frame includes a frame body with a cut-out and two gripping handles. The gravity tilt unit includes a movable part that has a pivot portion rotatably connected to the hand-held frame. The movable part tends to pivot due to gravity to turn the portable probe stand assembly to a hand-held state where a portion of an underside abutting surface of the movable part is disposed out of the cut-out. The portable probe stand assembly is convertible from the hand-held state to a usage state where the movable part is leveled via a pivot movement of the movable part upon engaging the underside abutting surface with a surface of an object.

Abstract: A camera module includes a housing, a frame disposed in an interior space of the housing, a movable body, a lens holder, first and second optical image stabilization (OIS) actuators. The movable body is configured to move in a first direction, perpendicular to an optical axis. The lens holder is configured to move in a second direction perpendicular to the first direction. The first OIS actuator is configured to move the movable body in the first direction. The second OIS actuator is configured to move the lens holder in the second direction. The frame includes a first opening through which a first OIS coil and a first OIS magnet of the first OIS actuator are disposed to face each other, and a second opening through which a second OIS coil and a second OIS magnet of the second OIS actuator are disposed to face each other.

Abstract: The present specification provides a baggage scanning system including: an aperture defining a scanning tunnel; a conveyor moving through the scanning tunnel, a baggage being scanned moving on the conveyor; a UWB radar array surrounding the aperture for providing radar scan data corresponding to the baggage; a LCMD array positioned at a location around the baggage allowing obtaining of LCMD scan data corresponding to the baggage; and at least a processor for correlating the radar scan data and the LCMD scan data for providing one or more suspicious regions highlighted over a video image of the baggage being scanned.

Abstract: A camera apparatus includes: a main body, on which a camera is mounted, wherein the camera is operated according to a signal applied from the outside, is configured to change a surveillance area by rotating in vertical and horizontal directions, and capture an image of the surveillance area; an attachment coupled to the main body, and configured to connect an external device to the main body; and a hanger in which a hole is formed, the hanger being connected to the main body for coupling the main body with the external device and decoupling the main body from the external device, wherein the attachment shares a center with the main body and is positioned at a center of the main body, and wherein the hanger is apart from the center of the main body by a certain distance and is connected to a side surface of the main body.

Abstract: A position detection device includes a magnet that generates a magnetic field to be detected, and a magnetic sensor. The magnetic sensor detects the magnetic field to be detected and generates a detection value corresponding to the position of the magnet. The magnetic sensor includes an MR element and a substrate. The substrate includes a main surface. The magnetic field to be detected received by the MR element has a first direction that changes within a first plane. The MR element includes a magnetic layer having first magnetization that can change in direction within a second plane parallel to the main surface. The first plane and the second plane intersect at a dihedral angle ? other than 90°. A detection value depends on the direction of the first magnetization.

Abstract: A wireless Josephson-junction-based amplifier is described that provides improved tunability and increased control over both a quality factor Q and participation ratio p of the amplifier. The device may be fabricated on a chip and mounted in a waveguide. No wire bonding between the amplifier and coaxial cables or a printed circuit board is needed. At least one antenna on the chip may be used to couple energy between the waveguide and wireless JBA. The amplifier is capable of gains greater than 25 dB.

Abstract: A method of controlling a gimbal mounted at an unmanned aerial vehicle (UAV) includes: obtaining a current attitude of the UAV and a current attitude of the gimbal at a current moment; predicting a flight speed of the UAV; and controlling the gimbal to rotate to maintain an angle of the gimbal relative to the UAV within a particular angle range according to the current attitude of the UAV, the current attitude of the gimbal, and the predicted flight speed of the UAV, such that a ratio of a propeller assembly of the UAV appearing in an image photographed by a capturing device mounted at the gimbal is lower than a pre-configured ratio threshold.

Abstract: An object of the present disclosure lies in that in an optical device including a blade mounted on a lens or in space in a lens, it is possible to achieve miniaturization and light weight of the entire equipped device, simplification of driving and simplification of assembling, by using a shape memory alloy in a driving portion. A blade driving device includes: a base member supporting a blade; a blade; a plate member having a caliber and constituting a blade chamber; a plate member having a caliber, constituting the blade chamber and covering the blade; a ring member rotatably shaft-supported and including a connecting portion connected to the blade; an elastic member held by the base member and the ring member; a shape memory alloy held by the base member and the ring member; a holding member for holding the shape memory alloy; and a wiring for power supply.

Abstract: A motorized camera mobile device stand that includes a motorized component and an alignment component. The motorized component is configured to receive a command signal from a camera mobile device, and place, in response to the command signal, the camera mobile device in multiple positions for capturing images. The positions include multiple rotation angles with respect to a rotation axis and multiple tilting angles with respect to a tilting axis. The alignment component is configured to substantially align, prior to receiving the command signal and based on a laser beam, the rotation axis with a camera lens of the camera mobile device, substantially align, prior to receive the command signal and based on the laser beam, the tilting axis with the camera lens, and constrain the camera mobile device such that the camera lens substantially overlaps an intersection of the rotation axis and the tilting axis in each position.

Abstract: A camera mounting structure includes: a bracket that is attached to a vehicle upper side of an inner surface of a front windshield glass; a camera that is supported by the bracket and detects information about the surroundings of a vehicle; and an angle-of-view hood member that has a fastening portion fastened to the bracket and a catch portion caught on the bracket and is disposed on a vehicle front lower side of a lens of the camera.

Abstract: A dome (102) for a monitoring camera system comprises several monitoring cameras. The dome is formed from a transparent material, and has a toroidal shape with a rotational symmetry along a rotational angle (?) around a first axis of symmetry (S1). An outer segment of the dome, in section, has a shape further defined by a second axis of symmetry (S2) arranged at a first radius (R) from the first axis of symmetry (S1) and is orthogonal to the first axis. The outer segment has a curvature following a second radius (r) over an angle (?) around the second axis of symmetry (S2).

Abstract: Inspection assemblies that include one or more sideview cameras for capturing images of an interior surface of a pipe or conduit include an elongate housing, a sideview camera within the housing and arranged to capture an image of a region within a field of view external to the housing, and a viewport element mounted in the housing and located such that light is transmitted through the viewport element and into said sideview camera, wherein the viewport element has a concave internal surface, closer to the camera, and a convex external surface, further from the camera, and wherein the centre of the radius of curvature of the internal surface is closer to the viewport element than the centre of the radius of curvature of the external surface.

Abstract: Example implementations relate the selective defocus of cameras. For instance, in an example an electronic device including a camera including a lens having a field of view and a focal distance, a defocus switch, and an actuator to adjust the focal distance of the lens to selectively defocus a portion of the field of view of the lens in response to actuation of the defocus switch.

Abstract: Example implementations relate to ferromagnetic covers. For instance, in an example housing can include a bezel including first opening extending through a recess included in the bezel, a first magnet and a second magnet in an internal volume of the housing, and a ferromagnetic cover disposed in the recess and magnetically coupled to the first magnet and the second magnet, where the ferromagnetic cover includes a second opening to obscure a viewing portion of the first opening with the continuous portion when the ferromagnetic cover is positioned adjacent to a first side surface of the recess.

Abstract: A video system includes a camera, at least one magnet providing a magnetic field, a magnetometer, and a processing system. The magnetometer is configured to measure the magnetic field to generate a magnetometer readout. The magnetic field is altered when a lens cap blocks a view of the camera. The processing system is configured to detect, based on the magnetometer readout of the magnetic field, whether the lens cap is blocking the view of the camera.