Global Automatic Measuring Device for Light Sources

Abstract

The invention relates to a device designed for testing sensors or camera sensors intended for use in light localization.

Description

1 TARIFF Global Automatic Measuring Device for Light Sources Technical Field to Which the Invention Relates The invention describes a sensor or camera designed to detect the position of light sources. It relates to testing the sensors. 5 Prior knowledge of the art related to the invention. Test systems that measure the performance of sensors based on light rays from a light source. This is known in technology. In these systems, the light source is usually moved to create different colors. Sensors are tested according to the light rays coming from the points. A light localization sensor... To test its performance and measurement accuracy, position an artificial light source at hand. Replacing it presents both difficulties and the need for a large measurement area where this system can be installed. This requires a mechanical system, even if this artificial light source is moved by a motor. Establishing it will be complex and difficult. Most inventions used in technology were designed for use with natural light sources. In devices that use artificial light sources, the position of the light source can be adjusted manually. It requires modification. Invention number TR202008290A1 is designed for the localization of light sources. The document describes an invention. The invention mentioned in the document is in the shape of a hemisphere or a full sphere. It is designed with the feature of containing sensors on the surface of the sphere, and these sensors react to light. The purpose of the invention mentioned in the document is to determine the azimuthal position of the source. Because it can determine the position of the sun, the position of the sun can be determined and solar energy can be used. It can move the solar panels to the necessary angle to make them work more efficiently. Current technology also includes systems that provide movement to the sensor for conducting tests. It is known. A test system is described in Dávila-Almazán's work [1]. Here, a basic structure 25 A vertical profile is placed on it. An azimuth gear is positioned parallel to the aforementioned profile. A DC motor is mounted. A second profile, connected to the first by a gear, is placed on top of the first profile. It is positioned. An azimuth gear DC motor rotates this gear, thereby delivering the second profile. It provides rotational movement. Furthermore, the second profile mentioned is perpendicular to the axis of rotation. It is pivotally connected to a second part so that it rotates on the axis. These 30 parts mentioned... 2 If one gear is provided on the pivot axis, another gear is controlled by a DC motor. It is stated that a solar panel is provided at the end of the pivotally moving part mentioned. A pointing sensor is installed, and the values ​​read here are used for testing. Many gears are used here to transmit power, and these gears greatly enhance the system. This makes it complicated. In addition, because the structure is multi-part, it is easily broken. 5 In conclusion, all the problems mentioned above make innovation in the relevant field imperative. has brought. Purposes and Brief Description of the Invention The primary purpose of the device is to improve the performance of a light localization sensor or camera sensor. and to create a device designed to test the accuracy of the measurement. The previous technique was also 10 Light localization sensors are used in devices designed to check measurement accuracy. Measurements are taken by moving the artificial light source. These devices use artificial light. The movement of the light source must be provided by hand or by a complex machine. The invention is artificial light. the movement of sensors without moving the source manually or with the help of a machine by developing a mechanism that reduces mechanical complexity and requires less space. 15 A light localization sensor can detect and detect light. Definitions of the Figures Illustrating the Invention The diagrams and related information used to better explain the device developed with this invention are as follows: The explanations are below. 20 Figure 1. Representative image of the device subject to the invention. Figure 2. Side view showing the elements of the device subject to the invention. Descriptions of the Elements / Parts / Components Constituting the Invention To better explain the device developed with this invention, the parts and figures are shown in the diagrams. The sections are numbered, and the corresponding entry for each number is given below. 25 1. Light source 2. Sensor 3a. First engine 3b. Second engine 3 4. Power supply 5. Processor 6. Profile 7. Ground 8. Measurement platform 5 9th Mile I. Light L1. Primary connecting arm. L2. Secondary connecting arm. R1. First axis 10 R2. Second axis Detailed Description of the Invention The subject of the invention is the testing of light localization sensors or camera sensors. It relates to a device designed for use. 15 Referring to Figure 1; mounted vertically on a ground (7), preferably cylindrical in shape a metal profile (6) designed to be and the end of the said metal profile (6) It includes a fixed artificial light source (1). The mentioned light source (1) is any wave It can be in the neck. For example, natural, infrared or laser type light sources (1) can be used. The purpose of the mentioned profile (6) is to keep the light source (1) from the sensor (2) at a height of 20 It is fixing the light source in such a way that it will remain motionless in a position (1) azimuthal. The light it emits in the directions (I) is placed at a point lower than the light source (1) in the vertical and It is detected by a sensor (2) preferably designed in the shape of a hemisphere. The movement of the mentioned sensor (2) is controlled by a first motor (3) and a second motor (3b). is done. If there is a first engine (3) and a second engine (3b) mentioned here, then at least one processor (5) 25 It is controlled by and the processor determines the position of the sensor (2). Here each motor for which they communicate with each other or are controlled by a common control system There may be processors (5) or a single common processor (5) can control both motors. The movement of the light source is controlled by an embedded system software on the processor (5). 30 that will mimic its orbit (for example, the trajectory of the sun as a natural light source) 4 In this way, it can place the sensor (2) at a certain speed within a suitable scenario. a measuring platform (8) is moved and the device to be tested is attached to this measuring platform (8) The real-time analysis of the data collected from the sensor (2) is performed by the processor (5) or another computer This can be done later via a similar external processor (5). Ideally, the power supply (4) provides the power to operate the motors, while the processor (5) provides the power to operate the motors. It processes the position of the sensor (2), the movement of the sensor (2) and the position of the light source (1) and by detecting changes in the position of the light source (1) as a result of the movement of the sensor (2) It tests the accuracy of the sensor (2). In a preferred configuration of the invention, the mentioned processor (5) is the sensor (2) It processes the position of the sensor (2), the movement of the light source (1) and the position of the sensor (2) 10 by detecting the changes in the position of the light source (1) as a result of its movement, the sensor (2) To test its accuracy, the sensor’s (2) response according to the localization changes works. Preferably, the mentioned processor (4) gives the localization changes of the sensor (2) according to the information. The response is configured to be compared against a predetermined value. So the test system in question has an internal processor (5) 15 to perform the test. It may include or collect data with an external processor (5) similar to a computer. It performs the analysis / test. The invention involves placing the power supply (4) and the sensor (2) on top of the power supply. The box which can carry and contains the processor (5) is supported by motors (7) on the floor. It creates a structure that can move on global coordinates. The sensor (2) moves 20 To do this, at least two first-level measuring devices must be mounted under and next to the measuring platform (8). There are motors (3a) and second motor (3b) and these motors are on the measuring platform (8) It moves the sensor (2) mounted on it along global coordinates. The test has two It contains a motor and can rotate the sensor (2) as well as rotate on an axis perpendicular to the ground (7). By providing this, it can also change its position. 25 Referring to Figure 2; The feature of the device created is the sensor designed in the shape of a hemisphere (2) The measurement platform (8) on which it is placed also has a power supply (4) preferably designed in the form of a box. It is designed to carry, with an L-shaped primary linkage arm (L1) and a secondary linkage arm. It includes two connecting arms with a lever (L2) and the primary connecting arm (L1) preferably has a bearing. The characteristic of these two connecting arms is that they are connected by means of a shaft (9) passing through them. The ability to act independently of each other. The shaft (9) is designed to pass through the bearing. The primary linkage is provided in an L shape. The arm (L1) is connected to the first motor (3a) and the measurement is taken with the help of the first motor (3a). The platform (8) can be rotated relative to a first axis (R1). The sensor moves on the ground 5 with a secondary connecting arm (L2) designed to be L-shaped for the sensor (2) The motor (3b) which enables it to rotate on an axis perpendicular to the ground (7) is connected by a shaft. is connected and enables the sensor (2) to move on the ground (7). The secondary motor mentioned here (3b) rotates the secondary linkage arm (L2) with respect to a secondary axis (R2). Here the primary The axis (R1) is perpendicular to the secondary axis (R2). Another important feature of the invention is the primary connecting arm 10 (L1) and the secondary connecting arm (L2) move simultaneously but independently of each other. It is the ability to move. Here, thanks to the L-shaped primary linkage arm (L1) and secondary linkage arm (L2), there is a lot of The sensor's position can be adjusted with a simpler and more robust system. 6 REFERENCES [1] Dávila Almazán, José & Herrera Andrade, Grecia & Solís Galeana, Marco & Flores, Diego. (2022). Experimental platform for testing solar tracking and energy conversion strategies. AIP Conference Proceedings. 2550. 050003. 10.1063 / 5.0101827. 5

Claims

7 REQUESTS 1. Sensors designed to localize moving light sources (2) or It is a test device for camera sensors, and its features include: A light source (1), a measurement platform (8) configured to carry at least one sensor (2), 5 An L-shaped primary connecting arm (L1) carrying the measurement platform (8) and one end of the primary An L-shaped secondary connecting arm (L2) aligned with the connecting arm, fixed to the aforementioned secondary connecting arm (L2) and its output is made by a shaft (9) a primary connected to the end of the primary connecting arm (L1) that will provide rotational movement. motor (3a), 10 at the other end of the aforementioned secondary connecting arm (L2), the aforementioned primary motor (3a) a secondary linkage arm (L2) that rotates on an axis perpendicular to the axis of rotation on which it is provided. motor (3b), At least one power source (4) that provides power to the first engine (3a) and the second engine (3b) mentioned. It must contain at least one processor (5) controlling the primary motor (3a) and the secondary motor (3b). 15 2. A test device that complies with Claim 1, and its feature is; localization of the mentioned sensor (2). by processing the response it gives according to the changes, it tests the primary motor (3a) and secondary It contains a processor (5) that controls the motor (3b).

3. A test device that complies with claim 2, and its feature is; localization changes of the sensor (2). The processor (4) compares the answer it gives with a predetermined value. It includes.

4. A test device that complies with Claim 1, and whose characteristic is that the aforementioned secondary connecting arm (L2) is 25 passing through an opening provided, it connects to the primary connecting arm (L1). It includes the mentioned mile (9).

5. A shaft (9) conforming to claim 4, whose characteristic is a bearing placed in the aforementioned opening. It includes. 30 6. A device that conforms to Claim 1 and has the feature of a profile (6) for fixing the light source. It is the use of. 8 7. A device that complies with Claim 1, and whose characteristic is that the aforementioned primary components are independent of each other. It includes a connecting arm (L1) and a secondary connecting arm (L2).

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