Abstract: Systems and methods are provided, having sensing unit(s) configured to capture images of a surrounding of a vehicle, and a processing unit connected to a database which is configured to store imaging data relating to the surrounding of the vehicle together with metadata relating to capturing parameters of the stored imaging data. The processing unit enhances the captured images with stored imaging data according to a correspondence of metadata with vehicle situations, for example, according to a relation between capturing parameters of different sensing units. Sensing unit(s) may be gated infrared to indicate specified reflectivity parameters of regions in the captured images. Sensing unit(s) may comprise a controller applying changing patterned filters to the pixel array to enhance visibility and other image features. Multiple sensing units with gateable infrared sensors may communicate using modulated illumination spots.

Abstract: A single pixel sensor is provided, comprising a photo sensor configured to convert light into proportional signals; a charge storage configured to accumulate, repeatedly, a plurality of the signals converted by the photosensor; a first transistor coupled between a pixel voltage terminal and the photosensor; a second transistor coupled between the photosensor and the charge storage; and a readout circuit coupled between the charge storage and an output channel, wherein: the single pixel sensor is configured to carry out the repeated accumulations of signals multiple times per each readout by the readout circuit to synchronously convert reflections of light emitted by the illuminator, and to carry out at least one of the repeated accumulations of signals in at least partial overlap with at least one light pulse generated by the pulsed illuminator.

Abstract: An apparatus for regulating air pressure level in a tire is provided herein. The apparatus includes a housing attached to the tire; a piston located inside the housing, coupled to the housing via a spring; a one-way valve; and locking elements located at a specified location along said housing, wherein the piston is configured to move towards a first end of the housing responsive to an imbalance between centrifugal force applied to the piston due to angular speed of the tire and force applied thereto by the spring means, wherein the locking elements are configured to lock the piston at the specified location whenever the tire reaches a predefined angular speed, and release the piston once the angular speed of the tire crosses a predefined threshold, so that said piston moves towards a second end of the sleeve producing an air pulse, conveyed by the one-way valve into the tire.

Abstract: A single pixel sensor is provided, comprising a photo sensor configured to convert light into proportional signals; a charge storage configured to accumulate, repeatedly, a plurality of the signals converted by the photosensor; a first transistor coupled between a pixel voltage terminal and the photosensor; a second transistor coupled between the photosensor and the charge storage; and a readout circuit coupled between the charge storage and an output channel, wherein: the single pixel sensor is configured to carry out the repeated accumulations of signals multiple times per each readout by the readout circuit, the single pixel sensor is configured to synchronously convert reflections of light emitted by an associated illuminator or to convert light emitted by non-associated flickering light sources, and wherein the single pixel sensor is backside illuminated by the light.

Abstract: A portable self-sustained power system including, a transportable platform, a plurality of solar array racking structures. The system includes a plurality of solar panels securely mounted upon said solar array racking structures thereby supporting the solar panels to form a plurality of planar solar arrays. The system further includes a plurality of hinge posts, each respectively connected near the corners of said transportable platform. The system further includes a plurality of solar array support frames, each of the solar array support frame vertically hinged to respective hinge posts, wherein the respective solar array support frame is capable of rotating at various angles around the vertical axis of the respective hinge post. The system further includes a plurality of horizontal hinges; each horizontal hinge rotatably interconnected between the solar arrays and the plurality support frames respectively, each respective hinge capable of rotatably positioning the respective solar array at various angles.

Abstract: A method for detecting objects in a scene using a synchronized illuminating and sensing process is provided herein. The method includes the following steps: illuminating a light beam along an illumination line within a scene; sensing reflections of said light, wherein said reflections come from objects located within a specified depth of field within said scene, along a sensing line; generating a tempo spatial synchronization between the illumination line and the sensing line, wherein said synchronization determines said depth of field; relatively shifting at least one of: the illuminating line, and the sensing line, based on said tempo spatial synchronization; and accumulating said reflections, thereby detecting said objects.

Abstract: A system for improving capturing of images of a scene, and data derived from them is provided herein. The system includes a light source configured to illuminate the scene with pulsed light at a specified direction based on predefined gating parameters; two or more capturing devices configured to capture images of the scene, each one of the capturing devices from at different spatial locations, wherein at least one of the capturing is synchronized with the pulsed light, so as to result in stereoscopic fused images of the scene for the synchronized capturing; and a computer processor configured to improve the capturing by using data derived from the gated images and the gating parameters. In another embodiment, the light source is not present and at least one of the sensors' is configured to apply multiple exposures for a single readout, to yield enhanced images that are used to improve the capturing.

Abstract: A method of controlling a traffic light having at least two distinguishable light signals is provided herein. The method may include the following steps: obtaining a lighting pattern that determines an order of turning “on” and turning “off” said light signals over time; and illuminating the light signals based on the lighting pattern, such that over at least one period of time, a first light of the at least two distinguishable light signals is visible from a first distance range from the traffic light and a second light of the at least two distinguishable light signals is visible from a second distance range from the traffic light, wherein the first and the second distance ranges are non-overlapping.

Abstract: A method for gated imaging using an adaptive depth of field is provided herein. The method includes obtaining boundary conditions associated with a preliminary depth of field (DOF) parameters in a scene; illuminating the scene, using a light source, with a pulsed light beam, based on the specified boundary conditions; controlling sensor array parameters based on the boundary conditions; capturing, using the sensor array, one or more images of the scene, wherein the capturing is based on one or more exposures synchronized with the pulsed light beam, to achieve gated images of the scene in accordance with the boundary conditions associated with the DOF parameters; analyzing at least one of the captured images, using data processing algorithms, to yield updated DOF parameters; and repeating the above stages with updated sensor array parameters and updated light source parameters, based on the updated DOF parameters and updated boundary conditions.

Abstract: A portable self-sustained power system including, a transportable platform, a plurality of solar array racking structures. The system includes a plurality of solar panels securely mounted upon said solar array racking structures thereby supporting the solar panels to form a plurality of planar solar arrays. The system further includes a plurality of hinge posts, each respectively connected near the corners of said transportable platform. The system further includes a plurality of solar array support frames, each of the solar array support frame vertically hinged to respective hinge posts, wherein the respective solar array support frame is capable of rotating at various angles around the vertical axis of the respective hinge post. The system further includes a plurality of horizontal hinges; each horizontal hinge rotatably interconnected between the solar arrays and the plurality support frames respectively, each respective hinge capable of rotatably positioning the respective solar array at various angles.