Apple internal and external quality detection position self-adaptive adjusting device
By designing Apple's internal and external quality detection position adaptive adjustment device and using the motor drive module to adjust the position of the detection device, the problem of Apple's internal quality detection accuracy deviation is solved, and high accuracy and stability of Apple's internal and external quality detection is achieved.
Patent Information
- Application Number
- CN202420886293.7
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-04-26
- Publication Date
- 2025-01-03
- Estimated Expiration
- 2034-04-26
AI Technical Summary
The accuracy of Apple's internal quality detection is affected by the difference between the arrival position of the conveyor mechanism and the placement position and size of the Apple, resulting in a deviation in the detection accuracy, which is difficult to effectively solve in the existing technology.
Design an adaptive adjustment device for Apple's internal and external quality detection position, and adjust the position of the halogen tungsten lamp and reflection probe through the controller drive motor drive module to make it in the optimal detection position, and conduct detection with a binocular image collector and spectrometer.
It improves the stability and overall inspection accuracy of Apple's internal quality inspection, ensuring the accuracy of Apple's internal and external quality inspection.
Smart Images

Figure CN222299509U_ABST
Abstract
Description
Technical Field
[0001] This patent relates to the technical field of apple quality inspection, and specifically to a device for adaptively adjusting the position of apple internal and external quality inspection. Background Art
[0002] With the improvement of people's quality of life, people's requirements for apple quality are getting higher and higher, and the accuracy requirements for apple quality detection equipment are also increasing. Apple quality detection is mainly divided into external quality and internal quality. External quality detection mainly relies on visual technology to analyze the external quality characteristics of apples and detect the external quality of apples. The detection accuracy has reached a relatively high level, while the internal quality detection method of apples mainly relies on spectral detection to analyze the internal quality characteristics of apples. Due to the differences in the arrival positions of the conveying mechanism and the differences in the placement and size of the apples, the accuracy of the internal quality detection of apples has a large deviation. An adaptive adjustment device for the position of internal and external quality detection of apples can adaptively adjust the position of the detection device according to the center position of the apple to improve the accuracy of internal and external quality detection of apples, which provides a certain theoretical basis for the apple quality detection system and has certain practical significance. Summary of the invention
[0003] The purpose of this patent is to complete the internal and external quality inspection of apples by obtaining the internal and external quality feature information of apples. During the internal quality inspection process, the controller drives the first, second, and third motor drive modules to adaptively adjust the positions of the halogen tungsten lamp and the reflection probe to put them in the best inspection position, thereby improving the stability of the internal quality inspection of apples and thus improving the overall accuracy of the internal and external quality inspection of apples.
[0004] In order to achieve the above-mentioned purpose, the technical solution adopted by the present patent is an apple internal and external quality detection position adaptive adjustment device, comprising a frame (1), an adaptive adjustment detection box (2), and a conveying mechanism (3); wherein: the adaptive adjustment detection box (2) is composed of a shell (201), a through-beam sensor (202), a binocular image collector (203), a spectrometer (204), a halogen tungsten lamp (205), a reflection probe (206), an illuminating lamp (207), a first motor drive module (208), a controller (209), a through-beam sensor base (2010), a second motor drive module (2011), and a third motor drive module (2012); the first motor drive module (208) is composed of a servo motor (2081), a motor flange (2082), a coupling (2083), a slide table (2084), a stage (2085), and a ball screw (2086); the first motor drive module (208), the second motor drive module (2011), and the third motor drive module (2012) are composed of a servo motor (2081), a motor flange (2082), a coupling (2083), a slide table (2084), a stage (2085), and a ball screw (2086); The three motor drive modules (2012) are identical in structure; the conveying mechanism (3) is composed of a fruit tray (301), an active double-row sprocket (302), a double-row chain (303), a driven double-row sprocket (304) and a fruit tray fixing frame (305); the halogen tungsten lamp (205) and the reflection probe (206) are both installed on the loading platform (2085) of the first motor drive module (208), the reflection probe (206) is located directly above the halogen tungsten lamp (205), and the first motor drive module (208) is installed on the loading platform (2085) of the first motor drive module (208). The end of the slide (2084) of the second motor drive module (2011) is fixed on the loading platform of the second motor drive module (2011), and the slide of the second motor drive module (2011) is fixed on the loading platform of the third motor drive module (2012); the through-beam sensor (202) is divided into a light beam transmitting end and a receiving end, the transmitting end is located next to the binocular image collector (203), and the receiving end is located next to the controller (209), and the installation height of the through-beam sensor (202) is lower than the top of the fruit plate (301) and higher than the top of the chain.
[0005] The device for adaptively adjusting the position of apple internal and external quality inspection is characterized in that: the first motor drive module (208) is used to adjust the movement of the loading platform (2085) in the up and down directions, the second motor drive module (2011) is used to adjust the movement of the loading platform in the left and right directions, and the third motor drive module (2012) is used to adjust the movement of the loading platform in the front and back directions.
[0006] The device for adaptively adjusting the position of apple internal and external quality inspection is characterized in that: a through hole is provided on the fruit plate (301) and the fruit plate fixing frame (305), and the two are connected by rivets; when the fruit plate (301) is transported to the middle part of the adaptive adjustment inspection box (2) and stops, there is only one fruit plate (301) within the field of view of the binocular image collector (203); two active double-row sprockets (302) and two driven double-row sprockets (304) are installed, and both are installed diagonally.
[0007] The beneficial effects of this patent are: When conducting internal quality inspection, the positions of the halogen tungsten lamp and the reflective probe can be adaptively adjusted to place them in the optimal inspection position, thereby improving the stability of the internal quality inspection of apples, and thereby improving the overall accuracy of the internal and external quality inspection of apples. BRIEF DESCRIPTION OF THE DRAWINGS
[0008] Figure 1 It is the main structural diagram of this patent.
[0009] Figure 2 It is a schematic diagram of the AA cross-sectional structure of this patent.
[0010] Figure 3 It is a schematic diagram of the BB cross-sectional structure of this patent.
[0011] Figure 4 This is an enlarged schematic diagram of the structure of the C area of this patent.
[0012] Figure 5 This is a schematic diagram of the motor drive module structure of this patent.
[0013] Figure 6 This is the abstract of this patent. DETAILED DESCRIPTION
[0014] The patent will be described in detail below with reference to the accompanying drawings.
[0015] like Figure 1 , Figure 2 , Figure 3 , Figure 4 and Figure 5 The device is composed of a frame (1), an adaptive adjustment detection box (2), and a conveying mechanism (3), wherein the adaptive adjustment detection box (2) is composed of a housing (201), a through-beam sensor (202), a binocular image collector (203), a spectrometer (204), a halogen tungsten lamp (205), a reflection probe (206), an illuminating lamp (207), a first motor drive module (208), a controller (209), a through-beam sensor base (2010), a second motor drive module (2011), and a third motor drive module (2012). The motor drive module (208) is composed of a servo motor (2081), a motor flange (2082), a coupling (2083), a slide table (2084), a loading platform (2085) and a ball screw (2086); the first motor drive module (208), the second motor drive module (2011) and the third motor drive module (2012) are completely identical in structure; the conveying mechanism (3) is composed of a fruit tray (301), an active double-row sprocket wheel (302), a double-row chain (303), a driven double-row sprocket wheel (304) and a fruit tray fixing frame (305).
[0016] As shown in the accompanying drawings, the device is operated by the controller (209), the lighting (207) is turned on, and an apple is randomly placed on the fruit plate (301). The controller (209) drives the active double-row sprocket (302) to rotate, driving the fruit plate (301) on the double-row chain (303) to enter the adaptive adjustment detection box (2). When the fruit plate (301) moves to the middle of the opposing sensor (202), the opposing sensor (202) receives a signal, and the controller (209) controls the active double-row sprocket (302) to stop rotating, starts the binocular image collector (203) to collect apple image information, and transmits the collected apple image information to the controller (209). The controller (209) completes the apple external quality detection by performing external quality analysis on the apple external image information. At the same time, the controller (209) obtains the coordinate information of the apple center position by analyzing the apple image information. After the coordinate information of the apple center position is determined, the controller (209) drives the first motor drive module (208), the second motor drive module (2011) and the third motor drive module (2012) to move according to the coordinate information of the center position of the apple, and adaptively adjusts the position of the halogen tungsten lamp (205) and the reflection probe (206) to make them in the best detection position. After the position adjustment is completed, the lighting lamp (207) is turned off, and the spectrometer (204), the halogen tungsten lamp (205) and the reflection probe (206) are started. The halogen tungsten lamp (205) emits near-infrared light to illuminate the outer surface of the apple. The reflection probe (206) receives the near-infrared light reflected from the surface of the apple and then transmits it to the spectrometer (204). The spectrometer (204) receives the light transmitted back by the reflection probe, separates the light of different wavelengths, analyzes the reflected light, and provides a detailed spectrum diagram showing the light intensity of various wavelengths. The analysis data is transmitted to the controller (209). The controller analyzes the spectrum data to complete the internal quality inspection of the apple.
Claims
1. An adaptive adjustment device for the position of internal and external quality inspection of apples, characterized by: The invention relates to a machine frame (1), an adaptive adjustment detection box (2), and a conveying mechanism (3); wherein the adaptive adjustment detection box (2) is composed of a housing (201), a beam sensor (202), a binocular image collector (203), a spectrometer (204), a halogen tungsten lamp (205), a reflection probe (206), an illuminating lamp (207), a first motor drive module (208), a controller (209), a beam sensor base (2010), a second motor drive module (2011), and a third motor drive module (2012); the first motor drive module (208) is composed of a servo motor (2081), a motor flange (2082), a coupling (2083), a slide table (2084), a stage (2085), and a ball screw (2086); and the first motor drive module (208), the second motor drive module (2011), and the third motor drive module (2012) are completely identical in structure. The conveying mechanism (3) is composed of a fruit tray (301), an active double-row sprocket (302), a double-row chain (303), a driven double-row sprocket (304) and a fruit tray fixing frame (305); the halogen tungsten lamp (205) and the reflection probe (206) are both installed on the loading platform (2085) of the first motor drive module (208), the reflection probe (206) is located directly above the halogen tungsten lamp (205), and the slide table (2084) of the first motor drive module (208) ) end is fixed on the loading platform of the second motor drive module (2011), and the slide of the second motor drive module (2011) is fixed on the loading platform of the third motor drive module (2012); the through-beam sensor (202) is divided into a light beam transmitting end and a receiving end, the transmitting end is located next to the binocular image collector (203), and the receiving end is located next to the controller (209), and the installation height of the through-beam sensor (202) is lower than the top of the fruit plate (301) and higher than the top of the chain.
2. The device for self-adapting the position of apple internal and external quality detection according to claim 1, characterized in that: Through holes are provided on the fruit tray (301) and the fruit tray fixing frame (305), and the two are connected by rivets; when the fruit tray (301) is transported to the middle part of the adaptive adjustment detection box (2) and stops, only one fruit tray (301) exists within the field of view of the binocular image collector (203); two active double-row sprocket wheels (302) and two driven double-row sprocket wheels (304) are installed, and both are installed diagonally.
