Width detection system for hot-rolled stainless steel plate
By designing a hot-rolled stainless steel plate width detection system, using gamma correction images and imaging focal lengths to determine the stainless steel plate width, and sending signals through parameter certification components, the problem of insufficient stainless steel plate width detection accuracy in the existing technology is solved, and high accuracy is achieved contactless detection.
Patent Information
- Application Number
- CN202411497922.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Priority Date
- 2024-04-28
- Filing Date
- 2024-10-25
- Publication Date
- 2025-01-24
- Estimated Expiration
- Not applicable · inactive patent
AI Technical Summary
It is difficult to achieve high-precision contactless numerical analysis of the width of hot-rolled stainless steel plates, resulting in width deviations of the manufactured stainless steel plate-related products, affecting normal use.
A hot-rolled stainless steel plate width detection system is designed. By detecting the distribution pattern in the gamma-corrected image based on the imaging characteristics of the stainless steel plate, combined with the number of pixels and imaging focal length, the current width of the stainless steel plate is determined, and the components are certified through parameters. Signal width deviation or compliance.
A high precision without contact testing of the width of hot -rolled stainless steel plates is achieved, ensuring the width accuracy of stainless steel plate associated products, and avoiding product equipment problems caused by width deviation.
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Figure CN119346632A_ABST
Abstract
Description
Technical Field
[0001] The invention relates to the field of stainless steel plates, and in particular to a hot-rolled stainless steel plate width detection system. Background Art
[0002] Hot-rolled stainless steel plates have relatively low strength and poor surface quality (oxidation and low finish), but good plasticity, generally medium and thick plates. Cold-rolled plates have high strength and hardness, high surface finish, generally thin plates, and can be used as stamping plates. After the straight coils are processed by trimming, trimming, trimming, and multiple straightening, flattening and other finishing lines, they are cut or re-rolled to become: hot-rolled stainless steel plates, flat hot-rolled steel coils, longitudinally cut strips and other products. If the hot-rolled finishing coils are pickled to remove the oxide scale and oiled, they become hot-rolled pickled coils. The hot-rolled stainless steel plate has a smooth surface, high plasticity, toughness and mechanical strength, and is resistant to corrosion by acids, alkaline gases, solutions and other media. It is an alloy steel that is not easy to rust, but it is not absolutely rust-proof.
[0003] Since stainless steel plates are the raw materials for manufacturing other related products, if the physical width of the stainless steel plates exceeds the set width numerical range, other related products manufactured from the stainless steel plates will obviously have width deviations. In serious cases, these products cannot be equipped in the application site for normal use. Therefore, a high-precision width analysis mechanism is needed to realize non-contact numerical analysis of the current width of each stainless steel plate. Summary of the invention
[0004] In order to solve the technical problems in the related fields, the present invention provides a hot-rolled stainless steel plate width detection system, which can detect the distribution pattern of the stainless steel plate in the gamma-corrected image based on the imaging features corresponding to the stainless steel plate, take the number of pixels occupied by the width curve corresponding to the geometric shape of the distribution pattern in the gamma-corrected image as a reference number, determine the current width of the stainless steel plate according to the reference number and the imaging focal length corresponding to the gamma-corrected image, the determined current width of the stainless steel plate is positively correlated with the reference number, and the determined current width of the stainless steel plate is positively correlated with the imaging focal length corresponding to the gamma-corrected image, and introduce a parameter authentication component for issuing a width deviation signal when the determined current width of the stainless steel plate is not within a set width range, and issuing a width compliance signal when the determined current width of the stainless steel plate is within the set width range, thereby completing targeted visual inspection of each stainless steel plate after hot rolling and cooling treatment.
[0005] According to the present invention, a hot-rolled stainless steel plate width detection system is provided, the system comprising: A cooling actuator is used to cool the stainless steel plate after hot rolling to obtain a single stainless steel plate finished product; A network acquisition mechanism, connected to the cooling actuator and located at the rear end of the cooling actuator, is used to perform a bird's-eye view image data acquisition operation on the finished single stainless steel plate to obtain and output a corresponding finished product acquisition image, wherein the network acquisition mechanism has a built-in network transceiver component, a bird's-eye view lens, and an image sensor component; The first layer enhancement device is connected to the network acquisition mechanism and is used to perform maximum filtering on the received finished product acquisition image to obtain and output a corresponding maximum filtering image; A secondary layer enhancement device, connected to the primary layer enhancement device, configured to perform Gaussian high-pass filtering on the received maximum value filtered image to obtain and output a corresponding real-time filtered image; A final layer enhancement device, connected to the secondary layer enhancement device, for performing gamma correction processing on the received real-time filtered image to obtain and output a corresponding gamma-corrected image; an information mapping component, connected to the last layer enhancement device and comprising a numerical capture device, a length analysis device and a depth of field application device, wherein the length analysis device is respectively connected to the numerical capture device and the depth of field application device, and is used to detect a distribution pattern of the stainless steel plate in the gamma-corrected image based on the imaging features corresponding to the stainless steel plate, and to use the number of pixels occupied by the width curve corresponding to the geometric shape of the distribution pattern in the gamma-corrected image as a reference number, and to determine the current width of the stainless steel plate according to the reference number and the imaging focal length corresponding to the gamma-corrected image, wherein the determined current width of the stainless steel plate is positively correlated with the reference number, and the determined current width of the stainless steel plate is positively correlated with the imaging focal length corresponding to the gamma-corrected image; A parameter authentication component connected to the information mapping component, configured to send a width deviation signal when the current width of the stainless steel plate is determined to be not within the set width range, and to send a width compliance signal when the current width of the stainless steel plate is determined to be within the set width range; Wherein, based on the imaging feature corresponding to the stainless steel plate, the distribution pattern of the stainless steel plate in the gamma-corrected image is detected, the number of pixels occupied by the width curve corresponding to the geometric shape of the distribution pattern in the gamma-corrected image is used as a reference number, and the current width of the stainless steel plate is determined according to the reference number and the imaging focal length corresponding to the gamma-corrected image, and the determined current width of the stainless steel plate is positively correlated with the reference number, and the determined current width of the stainless steel plate is positively correlated with the imaging focal length corresponding to the gamma-corrected image, including: the imaging feature corresponding to the stainless steel plate is the brightness value distribution interval corresponding to the stainless steel plate; Among them, based on the imaging features corresponding to the stainless steel plate, the distribution pattern of the stainless steel plate in the gamma-corrected image is detected, the number of pixel points occupied by the width curve corresponding to the geometric shape of the distribution pattern in the gamma-corrected image is used as a reference number, and the current width of the stainless steel plate is determined according to the reference number and the imaging focal length corresponding to the gamma-corrected image, the determined current width of the stainless steel plate is positively correlated with the reference number, and the determined current width of the stainless steel plate is positively correlated with the imaging focal length corresponding to the gamma-corrected image. It also includes: using a numerical conversion function to represent the conversion process of determining the current width of the stainless steel plate according to the reference number and the imaging focal length corresponding to the gamma-corrected image.
[0006] It can be seen that the present invention has at least the following significant substantive features: First, based on the imaging features corresponding to the stainless steel plate, a distribution pattern of the stainless steel plate in the gamma-corrected image is detected, the number of pixels occupied by the width curve corresponding to the geometric shape of the distribution pattern in the gamma-corrected image is used as a reference number, and the current width of the stainless steel plate is determined according to the reference number and the imaging focal length corresponding to the gamma-corrected image, the determined current width of the stainless steel plate is positively correlated with the reference number, and the determined current width of the stainless steel plate is positively correlated with the imaging focal length corresponding to the gamma-corrected image; Second: using information mapping components with targeted structural design including numerical capture equipment, length analysis equipment and depth of field application equipment to achieve contactless numerical acquisition of the current width of the stainless steel plate; Third: Introduce a parameter authentication component to send out a width deviation signal when the current width of the determined stainless steel plate is not within the set width range, and send out a width compliance signal when the current width of the determined stainless steel plate is within the set width range, thereby completing targeted visual inspection of each stainless steel plate after hot rolling and cooling treatment.
[0007] The hot-rolled stainless steel plate width detection system of the present invention is intelligently designed, convenient and practical. Since it can intelligently analyze the current width of the stainless steel plate based on various imaging data corresponding to the stainless steel plate, and send a width deviation signal when the current width of the stainless steel plate is not within the set width range, otherwise, it sends a width compliance signal, thereby completing targeted visual inspection of each stainless steel plate after hot rolling and cooling. BRIEF DESCRIPTION OF THE DRAWINGS
[0008] The embodiments of the present invention will be described below with reference to the accompanying drawings, wherein:
[0009] Figure 1 FIG. 1 is an internal structural diagram of a hot-rolled stainless steel plate width detection system according to a first embodiment of the present invention.
[0010] Figure 2 FIG. 1 is an internal structural diagram of a hot-rolled stainless steel plate width detection system according to a second embodiment of the present invention.
[0011] Figure 3 FIG. 1 is an internal structural diagram of a hot-rolled stainless steel plate width detection system according to a third embodiment of the present invention. DETAILED DESCRIPTION
[0012] The embodiment of the hot-rolled stainless steel plate width detection system of the present invention will be described in detail below with reference to the accompanying drawings.
[0013] Figure 1 The internal structure diagram of the hot-rolled stainless steel plate width detection system according to the first embodiment of the present invention is shown, and the system includes: A cooling actuator is used to cool the stainless steel plate after hot rolling to obtain a single stainless steel plate finished product; A network acquisition mechanism, connected to the cooling actuator and located at the rear end of the cooling actuator, is used to perform a bird's-eye view image data acquisition operation on the finished single stainless steel plate to obtain and output a corresponding finished product acquisition image, wherein the network acquisition mechanism has a built-in network transceiver component, a bird's-eye view lens, and an image sensor component; For example, the network acquisition mechanism is connected to the cooling actuator and is located at the rear end of the cooling actuator, and is used to perform a bird's-eye view image data acquisition operation on the single stainless steel plate finished product to obtain and output a corresponding finished product acquisition image. The network acquisition mechanism has a built-in network transceiver component, a bird's-eye view lens, and an image sensor component, including: the network transceiver component is based on a frequency division duplex communication link; The first layer enhancement device is connected to the network acquisition mechanism and is used to perform maximum filtering on the received finished product acquisition image to obtain and output a corresponding maximum filtering image; A secondary layer enhancement device, connected to the primary layer enhancement device, configured to perform Gaussian high-pass filtering on the received maximum value filtered image to obtain and output a corresponding real-time filtered image; A final layer enhancement device, connected to the secondary layer enhancement device, for performing gamma correction processing on the received real-time filtered image to obtain and output a corresponding gamma-corrected image; an information mapping component, connected to the last layer enhancement device and comprising a numerical capture device, a length analysis device and a depth of field application device, wherein the length analysis device is respectively connected to the numerical capture device and the depth of field application device, and is used to detect a distribution pattern of the stainless steel plate in the gamma-corrected image based on the imaging features corresponding to the stainless steel plate, and to use the number of pixels occupied by the width curve corresponding to the geometric shape of the distribution pattern in the gamma-corrected image as a reference number, and to determine the current width of the stainless steel plate according to the reference number and the imaging focal length corresponding to the gamma-corrected image, wherein the determined current width of the stainless steel plate is positively correlated with the reference number, and the determined current width of the stainless steel plate is positively correlated with the imaging focal length corresponding to the gamma-corrected image; A parameter authentication component connected to the information mapping component, configured to send a width deviation signal when the current width of the stainless steel plate is determined to be not within the set width range, and to send a width compliance signal when the current width of the stainless steel plate is determined to be within the set width range; Wherein, based on the imaging feature corresponding to the stainless steel plate, the distribution pattern of the stainless steel plate in the gamma-corrected image is detected, the number of pixels occupied by the width curve corresponding to the geometric shape of the distribution pattern in the gamma-corrected image is used as a reference number, and the current width of the stainless steel plate is determined according to the reference number and the imaging focal length corresponding to the gamma-corrected image, and the determined current width of the stainless steel plate is positively correlated with the reference number, and the determined current width of the stainless steel plate is positively correlated with the imaging focal length corresponding to the gamma-corrected image, including: the imaging feature corresponding to the stainless steel plate is the brightness value distribution interval corresponding to the stainless steel plate; Wherein, based on the imaging features corresponding to the stainless steel plate, the distribution pattern of the stainless steel plate in the gamma-corrected image is detected, the number of pixels occupied by the width curve corresponding to the geometric shape of the distribution pattern in the gamma-corrected image is used as a reference number, and the current width of the stainless steel plate is determined according to the reference number and the imaging focal length corresponding to the gamma-corrected image, the determined current width of the stainless steel plate is positively correlated with the reference number, and the determined current width of the stainless steel plate is positively correlated with the imaging focal length corresponding to the gamma-corrected image, further comprising: using a numerical conversion function to represent the conversion process of determining the current width of the stainless steel plate according to the reference number and the imaging focal length corresponding to the gamma-corrected image; Among them, the network acquisition mechanism is connected to the cooling actuator and is located at the rear end of the cooling actuator, and is used to perform a bird's-eye view image data acquisition operation on the single stainless steel plate product to obtain and output the corresponding finished product acquisition image. The network acquisition mechanism has a built-in network transceiver component, a bird's-eye view lens and an image sensor component, including: the network transceiver component is used to receive network control instructions that control the image sensor component to perform image data acquisition operations.
[0014] Figure 2 FIG. 1 is an internal structural diagram of a hot-rolled stainless steel plate width detection system according to a second embodiment of the present invention.
[0015] exist Figure 2 In, with Figure 1 Differently, the hot-rolled stainless steel plate width detection system shown in the second embodiment of the present invention may further include: a synchronous driving device, arranged near the numerical value capturing device, the length analyzing device, the depth of field applying device and the parameter authentication component and connected to the numerical value capturing device, the length analyzing device, the depth of field applying device and the parameter authentication component respectively; Among them, the synchronous driving device is arranged near the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component and is respectively connected to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component, including: the synchronous driving device is used to respectively realize the synchronous driving control of each of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component.
[0016] Figure 3 FIG. 1 is an internal structural diagram of a hot-rolled stainless steel plate width detection system according to a third embodiment of the present invention.
[0017] exist Figure 3 In, with Figure 1 Differently, the hot-rolled stainless steel plate width detection system shown in the third embodiment of the present invention may also include: A circuit supply device, which is arranged near the numerical value capturing device, the length analyzing device, the depth of field applying device and the parameter authentication component and is respectively connected to the numerical value capturing device, the length analyzing device, the depth of field applying device and the parameter authentication component; Wherein, the circuit supply device is arranged near the numerical value capturing device, the length analyzing device, the depth of field applying device and the parameter authentication component and is respectively connected with the numerical value capturing device, the length analyzing device, the depth of field applying device and the parameter authentication component, and comprises: the circuit supply device is used to respectively provide the numerical value capturing device, the length analyzing device, the depth of field applying device and the parameter authentication component with the working voltage values required by each; Wherein, an ASIC chip is used to perform image data processing on the output data of the numerical value capture device, the length analysis device, the depth of field application device and the parameter authentication component to obtain the output processing data corresponding to the numerical value capture device, the length analysis device, the depth of field application device and the parameter authentication component respectively; Wherein, using an ASIC chip to perform image data processing on the output data of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component to obtain the output processing data corresponding to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component respectively includes: performing maximum value filtering processing on the output data of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component to obtain the output processing data corresponding to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component respectively; Wherein, using an ASIC chip to perform image data processing on the output data of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component to obtain the output processing data corresponding to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component respectively includes: performing minimum value filtering processing on the output data of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component to obtain the output processing data corresponding to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component respectively; Wherein, using an ASIC chip to perform image data processing on the output data of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component to obtain the output processing data corresponding to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component respectively includes: performing median filtering processing on the output data of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component to obtain the output processing data corresponding to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component respectively; And wherein, an ASIC chip is used to perform image data processing on the output data of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component to obtain the output processing data corresponding to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component respectively, including: performing edge sharpening processing on the output data of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component to obtain the output processing data corresponding to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component respectively.
[0018] In addition, in the hot-rolled stainless steel plate width detection system, a network acquisition mechanism is connected to the cooling actuator and is located at the rear end of the cooling actuator, and is used to perform a bird's-eye view image data acquisition operation on the single stainless steel plate product to obtain and output the corresponding finished product acquisition image. The network acquisition mechanism has a built-in network transceiver component, a bird's-eye view lens and an image sensor component, and also includes: the bird's-eye view lens is arranged in front of the image sensor component.
[0019] Having described the embodiments of the present invention and its advantages, it should be noted that various changes, substitutions and alterations may be made herein without departing from the spirit and scope of the present invention as defined in the appended claims. In addition, the use of terms such as "first", "second", etc. does not indicate any order or importance, but rather the terms "first", "second", etc. are used to distinguish elements from each other.
Claims
1. A hot-rolled stainless steel plate width detection system, characterized in that: The system comprises: A cooling actuator is used to cool the stainless steel plate after hot rolling to obtain a single stainless steel plate finished product; A network acquisition mechanism, connected to the cooling actuator and located at the rear end of the cooling actuator, is used to perform a bird's-eye view image data acquisition operation on the finished single stainless steel plate to obtain and output a corresponding finished product acquisition image, wherein the network acquisition mechanism has a built-in network transceiver component, a bird's-eye view lens, and an image sensor component; The first layer enhancement device is connected to the network acquisition mechanism and is used to perform maximum filtering on the received finished product acquisition image to obtain and output a corresponding maximum filtering image; A secondary layer enhancement device, connected to the primary layer enhancement device, configured to perform Gaussian high-pass filtering on the received maximum value filtered image to obtain and output a corresponding real-time filtered image; A final layer enhancement device, connected to the secondary layer enhancement device, for performing gamma correction processing on the received real-time filtered image to obtain and output a corresponding gamma-corrected image; an information mapping component, connected to the last layer enhancement device and comprising a numerical capture device, a length analysis device and a depth of field application device, wherein the length analysis device is respectively connected to the numerical capture device and the depth of field application device, and is used to detect a distribution pattern of the stainless steel plate in the gamma-corrected image based on the imaging features corresponding to the stainless steel plate, and to use the number of pixels occupied by the width curve corresponding to the geometric shape of the distribution pattern in the gamma-corrected image as a reference number, and to determine the current width of the stainless steel plate according to the reference number and the imaging focal length corresponding to the gamma-corrected image, wherein the determined current width of the stainless steel plate is positively correlated with the reference number, and the determined current width of the stainless steel plate is positively correlated with the imaging focal length corresponding to the gamma-corrected image; A parameter authentication component connected to the information mapping component, configured to send a width deviation signal when the current width of the stainless steel plate is determined to be not within the set width range, and to send a width compliance signal when the current width of the stainless steel plate is determined to be within the set width range; Wherein, based on the imaging feature corresponding to the stainless steel plate, the distribution pattern of the stainless steel plate in the gamma-corrected image is detected, the number of pixels occupied by the width curve corresponding to the geometric shape of the distribution pattern in the gamma-corrected image is used as a reference number, and the current width of the stainless steel plate is determined according to the reference number and the imaging focal length corresponding to the gamma-corrected image, and the determined current width of the stainless steel plate is positively correlated with the reference number, and the determined current width of the stainless steel plate is positively correlated with the imaging focal length corresponding to the gamma-corrected image, including: the imaging feature corresponding to the stainless steel plate is the brightness value distribution interval corresponding to the stainless steel plate; Among them, based on the imaging features corresponding to the stainless steel plate, the distribution pattern of the stainless steel plate in the gamma-corrected image is detected, the number of pixel points occupied by the width curve corresponding to the geometric shape of the distribution pattern in the gamma-corrected image is used as a reference number, and the current width of the stainless steel plate is determined according to the reference number and the imaging focal length corresponding to the gamma-corrected image, the determined current width of the stainless steel plate is positively correlated with the reference number, and the determined current width of the stainless steel plate is positively correlated with the imaging focal length corresponding to the gamma-corrected image. It also includes: using a numerical conversion function to represent the conversion process of determining the current width of the stainless steel plate according to the reference number and the imaging focal length corresponding to the gamma-corrected image.
2. The hot-rolled stainless steel plate width detection system according to claim 1, characterized in that: A network acquisition mechanism is connected to the cooling actuator and is located at the rear end of the cooling actuator, and is used to perform an overhead image data acquisition operation on the single stainless steel plate product to obtain and output a corresponding finished product acquisition image. The network acquisition mechanism has a built-in network transceiver component, an overhead lens and an image sensor component, including: the network transceiver component is used to receive network control instructions that control the image sensor component to perform image data acquisition operations.
3. The hot-rolled stainless steel plate width detection system according to claim 2, characterized in that: The system further comprises: a synchronous driving device, arranged near the numerical value capturing device, the length analyzing device, the depth of field applying device and the parameter authentication component and connected to the numerical value capturing device, the length analyzing device, the depth of field applying device and the parameter authentication component respectively; Among them, the synchronous driving device is arranged near the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component and is respectively connected to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component, including: the synchronous driving device is used to respectively realize the synchronous driving control of each of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component.
4. The hot-rolled stainless steel plate width detection system according to claim 2, characterized in that: The system further comprises: A circuit supply device, which is arranged near the numerical value capturing device, the length analyzing device, the depth of field applying device and the parameter authentication component and is respectively connected to the numerical value capturing device, the length analyzing device, the depth of field applying device and the parameter authentication component; Among them, the circuit supply device is arranged near the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component and is respectively connected to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component, including: the circuit supply device is used to provide the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component with the required working voltage values respectively.
5. The hot-rolled stainless steel plate width detection system according to any one of claims 2 to 4, characterized in that: An ASIC chip is used to perform image data processing on the output data of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component to obtain output processing data corresponding to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component respectively.
6. The hot-rolled stainless steel plate width detection system according to claim 5, characterized in that: An ASIC chip is used to perform image data processing on the output data of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component to obtain the output processing data corresponding to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component respectively, including: performing maximum value filtering processing on the output data of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component to obtain the output processing data corresponding to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component respectively.
7. The hot-rolled stainless steel plate width detection system according to claim 5, characterized in that: An ASIC chip is used to perform image data processing on the output data of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component to obtain the output processing data corresponding to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component respectively, including: performing minimum value filtering processing on the output data of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component to obtain the output processing data corresponding to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component respectively.
8. The hot-rolled stainless steel plate width detection system according to claim 5, characterized in that: An ASIC chip is used to perform image data processing on the output data of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component to obtain the output processing data corresponding to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component respectively, including: performing median filtering processing on the output data of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component to obtain the output processing data corresponding to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component respectively.
9. The hot-rolled stainless steel plate width detection system according to claim 5, characterized in that: An ASIC chip is used to perform image data processing on the output data of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component to obtain the output processing data corresponding to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component respectively, including: performing edge sharpening processing on the output data of the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component to obtain the output processing data corresponding to the numerical capture device, the length analysis device, the depth of field application device and the parameter authentication component respectively.