Visual turbidity measuring device for identifying particle disturbances
By combining turbidity charts and laser optical sensors in a visual turbidity measurement device, the problems of accuracy and management dependence in measuring particle contamination of lubricating oil and hydraulic oil have been solved, achieving the accuracy and intuitiveness of dual measurement methods.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- CO LTD LED BRANCH
- Filing Date
- 2025-11-04
- Publication Date
- 2026-06-05
AI Technical Summary
In the current technology, the measurement of particle contamination of lubricating oil and hydraulic oil relies on manual sampling, which is time-consuming and labor-intensive. Furthermore, there is a lack of effective dual measurement methods to identify particle disturbances caused by soft particles and moisture contamination, resulting in inaccurate management and reliance on professional personnel.
Design a visual turbidity measurement device that combines a turbidity chart and a laser optical sensor to achieve comparative analysis between visual confirmation and electronic pollution measurement. The device includes a measurement unit, a turbidity chart, a laser optical sensor, a display, a camera management unit, and a control unit. The accuracy is improved through dual measurement methods.
It enables timely identification and dual measurement in the event of laser optical sensor failure, improves the accuracy of lubricating oil and hydraulic oil particle contamination measurement and management intuitiveness, and reduces reliance on professional personnel.
Smart Images

Figure CN122150199A_ABST
Abstract
Description
Technical Field
[0001] This invention relates to a visual turbidity measuring device for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination levels in lubricating oils and hydraulic oils. More specifically, it relates to a visual turbidity measuring device for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination levels in lubricating oils and hydraulic oils, enabling comparative analysis between visual confirmation and diagnosis based on turbidity charts and electronic contamination measurements based on laser optical sensors. Background Technology
[0002] The content described in this section is only for providing background information on one embodiment of the present invention and does not constitute prior art.
[0003] The lubricating oils used in power generation equipment and instruments vary depending on the operating conditions, but their lubrication performance inevitably deteriorates due to heating or the introduction of foreign matter. Therefore, regular sampling and analysis are necessary. In particular, if the lubrication equipment is operating under abnormal conditions, monitoring the generation tendency of metal wear particles under abnormal conditions through contamination levels can greatly help stabilize the operation of the lubrication equipment and prevent accidents in advance.
[0004] Furthermore, considering the saturation humidity within the lubricating oil, if a malfunction is caused by a leak in the lubricating oil cooler, the influx of water will cause a rapid increase in the free water content of the lubricating oil in a short period. This emulsification will lead to changes in viscosity, preventing the formation of a suitable oil film required by the instrument, resulting in instrument damage and, in severe cases, serious malfunctions of mechanical devices. In addition, lubrication management includes monitoring the viscosity and contamination level of the lubricating oil. Continuous monitoring of these parameters can ensure more stable equipment operation, minimize economic losses due to excessive operating costs, and improve the operating efficiency of machinery / equipment.
[0005] As mentioned above, for the stable operation of machinery / equipment, the management of lubricating oil and hydraulic oil is an essential management item. The evaluation of lubricating oil and hydraulic oil requires on-site sampling, which involves a series of steps including air transport of the sampled lubricating oil and hydraulic oil, the time and cost of analysis by the analytical agency, and feedback from the A / S center. This presents a problem of significant costs and time consumption. Furthermore, current sampling operations rely heavily on manual sampling by professional personnel, making them highly dependent on human error and potentially leading to problems. Managing the oil contamination status and operation of individual excavators is also a time-consuming and labor-intensive task. Existing technical literature includes Korean Patent Publication No. 10-0789724.
[0006] The background technology mentioned refers to technical information that the inventor possesses in order to derive this invention or that is learned during the process of deriving this invention, and does not necessarily have to be prior art disclosed to the general public before applying for this invention. Summary of the Invention
[0007] This invention addresses the problems described above in conventional methods. The object of this invention is to provide a visual turbidity measuring device for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination levels in lubricating oils and hydraulic oils. The device includes: a measuring device body forming a measuring section outer casing space for housing a sample outer casing taken as a sample for measuring particle contamination levels in lubricating oils and hydraulic oils; a turbidity chart configured to confirm and diagnose the contamination level of the sample outer casing space within the measuring device body; and a laser optical sensor for measuring the turbidity level of the sample outer casing space within the measuring device body. The device includes: a measurement unit for measuring the contamination level of a sample cover within the measurement unit's outer casing; a display for showing the contamination level measurement result of the sample cover as measured by a laser optical sensor; an image management unit for capturing and storing images of the sample cover within the space of the measurement unit as oil images; and a control unit for performing control management, the control management including at least one of the following functions: contamination level measurement drive control of the laser optical sensor, display control of the display, and image management control of the image management unit, thereby enabling comparative analysis through visual confirmation and diagnosis based on turbidity charts and electronic contamination level measurement based on laser optical sensors.
[0008] Furthermore, another object of the present invention is to provide a visual turbidity measuring device for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination in lubricating oil and hydraulic oil. Specifically, by comparing and analyzing the difference between visual confirmation and diagnosis based on turbidity charts and electronic contamination measurement based on laser optical sensors, the device can promptly identify laser optical sensor malfunctions when they occur. This allows for both simple usage and visual management as a basic lubrication management method.
[0009] Furthermore, another objective of this invention is to provide a visual turbidity measuring device for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination levels in lubricating oils and hydraulic oils. Specifically, by enabling comparative analysis between visual confirmation and diagnosis based on turbidity charts and electronic contamination measurement based on laser optical sensors, the device allows for intuitive measurement by managers through both visual and electronic contamination measurement, and further improves the accuracy of the measurement.
[0010] However, the purpose of this invention is not limited to the purpose described above, and other purposes may exist.
[0011] According to the present invention for identifying particle disturbances caused by soft particles and moisture contamination when measuring particulate contamination in lubricating oil and hydraulic oil, the present invention is characterized by comprising: a measuring device body forming a measuring section outer cover space for housing a sample cover taken as a sample for measuring particulate contamination in lubricating oil and hydraulic oil; a turbidity chart configured to confirm and diagnose the contamination level of the sample cover disposed in the measuring section outer cover space of the measuring device body; a laser optical sensor for measuring the contamination level of the sample cover disposed in the measuring section outer cover space of the measuring device body; a display for displaying the contamination level measurement result of the sample cover measured by the laser optical sensor; an image management unit for capturing and storing images of the sample cover disposed in the space of the measuring device body as oil images; and a control unit for performing control management, the control management including at least one of the functions of contamination level measurement drive control of the laser optical sensor, display control of the display, and image management control of the image management unit.
[0012] Preferably, the visual turbidity measuring device can perform a comparative analysis between visual confirmation of contamination based on the turbidity chart and contamination measurement based on the laser optical sensor when measuring particle contamination in lubricating oil and hydraulic oil.
[0013] More preferably, by analyzing the difference between visual measurements based on the turbidity chart and contamination measurements based on the laser optical sensor, the visual turbidity measuring device can promptly identify a malfunction in the laser optical sensor.
[0014] Preferably, the measuring device body may further include a front surface door, which opens and closes on the front surface of the measuring section outer cover space for housing a sample outer cover for measuring particle contamination levels in lubricating oil and hydraulic oil.
[0015] More preferably, the shooting management unit may include: a camera for shooting the sample cover disposed on the measuring device body; an illumination unit for providing illumination light when shooting the sample cover disposed in the measuring part cover space of the measuring device body; and a storage unit for storing the captured images of the sample cover taken by the camera.
[0016] More preferably, the shooting management unit can perform standardized image management based on shooting under the same lighting light and at the same distance, using a camera located at the lower end of the front surface door of the measuring device body and lighting provided in the space of the measuring unit cover of the measuring device body.
[0017] More preferably, the control unit can perform the following functions: by including the pollution degree measurement drive control of the laser optical sensor, the display control of the display, and the image management control of the shooting management unit, the oil photos and color management of each device can be realized.
[0018] According to the present invention, a visual turbidity measuring device for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination in lubricating oil and hydraulic oil includes: a measuring device body forming a measuring section outer cover space for housing a sample outer cover sampled for measuring particle contamination in lubricating oil and hydraulic oil; a turbidity chart configured to confirm and diagnose the contamination level of the sample outer cover disposed in the measuring section outer cover space of the measuring device body; a laser optical sensor for measuring the contamination level of the sample outer cover disposed in the measuring section outer cover space of the measuring device body; a display for displaying the contamination level measurement result of the sample outer cover measured by the laser optical sensor; an image management unit for capturing and storing images of the sample outer cover disposed in the space of the measuring device body as oil images; and a control unit for performing control management, the control management including at least one of the functions of contamination level measurement drive control of the laser optical sensor, display control of the display, and image management control of the image management unit, thereby enabling comparative analysis between visual confirmation and diagnosis based on the turbidity chart and electronic contamination level measurement based on the laser optical sensor.
[0019] Furthermore, the visual turbidity measuring device according to the present invention for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination in lubricating oil and hydraulic oil, through comparative analysis between visual confirmation and diagnosis based on turbidity charts and electronic contamination measurement based on laser optical sensors, can promptly identify laser optical sensor malfunctions when they occur, thereby achieving visual management as a basic lubrication management while implementing a simple usage method.
[0020] Furthermore, the visual turbidity measuring device according to the present invention for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination in lubricating oil and hydraulic oil, enables intuitive measurement by managers through dual measurement of contamination by both visual and electronic methods, and can further improve the accuracy of measurement, by allowing for comparative analysis between visual confirmation and diagnosis based on turbidity charts and electronic contamination measurement based on laser optical sensors.
[0021] Furthermore, the various and beneficial advantages of the present invention are not limited to the content described herein, and can be more easily understood in the process of explaining specific embodiments of the present invention. Attached Figure Description
[0022] Figure 1 This diagram illustrates, in a functional block manner, the structure of a visual turbidity measuring device according to an embodiment of the present invention for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination levels in lubricating oils and hydraulic oils.
[0023] Figure 2 This diagram illustrates, in a functional block manner, the structure of the imaging management unit of a visual turbidity measuring device for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination levels in lubricating oil and hydraulic oil, according to an embodiment of the present invention.
[0024] Figure 3 This is a simplified internal perspective view of a visual turbidity measuring device according to an embodiment of the present invention for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination levels in lubricating oils and hydraulic oils, with the outer casing removed.
[0025] Figure 4 This diagram illustrates the structure of the front surface portion of a visual turbidity measuring device according to an embodiment of the present invention, used to identify particle disturbances caused by soft particles and moisture contamination when measuring particle contamination levels in lubricating oil and hydraulic oil, with the front surface door open.
[0026] Figure 5 The image shows a photograph of the lowering of the measuring section cover during measurement, illustrating a visual turbidity measuring device according to an embodiment of the present invention for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination in lubricating oil and hydraulic oil.
[0027] Figure 6 The image shown is a photograph of the rising outer casing of the measuring section of a visual turbidity measuring device for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination levels in lubricating oil and hydraulic oil, according to an embodiment of the present invention, in standby mode.
[0028] Figure 7The image shows a photograph of a sample measurement of a visual turbidity measuring device according to an embodiment of the present invention for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination in lubricating oil and hydraulic oil. Detailed Implementation
[0029] Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings, so that those skilled in the art can easily implement the present invention. However, the present invention can be implemented by many different embodiments and is not limited to the embodiments described herein. Moreover, for the purpose of clearly illustrating the present invention, parts unrelated to the description have been omitted in the drawings, and similar reference numerals have been assigned to similar parts throughout the specification.
[0030] Throughout the specification, when it is stated that a part is "connected" to other parts, this includes not only "direct connection" but also "indirect connection" with other devices in between. Furthermore, when it is stated that a part "includes" a structural element, unless otherwise stated otherwise, it means that other structural elements may also be included, rather than excluding them. It should be understood that the existence or additional possibility of one or more other features, figures, steps, actions, structural elements, components, or combinations thereof is not pre-existing.
[0031] The following embodiments are provided to aid in understanding the present invention and do not limit the scope of the invention. Therefore, inventions within the same scope that perform the same functions as the present invention also fall within the scope of the present invention.
[0032] Furthermore, the various structures, steps, processes, or methods included in the various embodiments of the present invention can be shared to the extent that they are not technically contradictory.
[0033] Figure 1 This diagram illustrates, in a functional block manner, the structure of a visual turbidity measuring device according to an embodiment of the present invention for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination levels in lubricating oils and hydraulic oils. Figure 2 This diagram illustrates, in a functional block manner, the structure of the imaging management unit of a visual turbidity measuring device according to an embodiment of the present invention, for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination levels in lubricating oil and hydraulic oil. Figures 1 to 2The visual turbidity measuring device 100 of one embodiment of the present invention for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination in lubricating oil and hydraulic oil may include: a measuring device body 110 forming a measuring section outer cover 111 space for housing a sample outer cover taken as a sample for measuring particle contamination in lubricating oil and hydraulic oil; a turbidity chart 120, configured to confirm and diagnose the contamination level of the sample outer cover disposed in the measuring section outer cover 111 space of the measuring device body 110; and a laser optical sensor 130 for measuring the particle disturbance caused by soft particles and moisture contamination in the measuring device body 110. The apparatus comprises: a measurement unit 110 for measuring the contamination level of a sample cover within the space of the measurement unit cover 111; a display 140 for displaying the result of the contamination level measurement of the sample cover by the laser optical sensor 130; an image management unit 150 for capturing and storing images of the sample cover disposed within the space of the measurement unit 110 as oil images; and a control unit 160 for performing control management, the control management including at least one of the following functions: contamination level measurement drive control of the laser optical sensor 130, display control of the display 140, and image management control of the image management unit 150. Hereinafter, the specific structure of a visual turbidity measuring apparatus according to an embodiment of the present invention for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination in lubricating oil and hydraulic oil will be described in detail with reference to the accompanying drawings.
[0034] Figure 3 This is a simplified internal perspective view of a visual turbidity measuring device according to an embodiment of the present invention for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination levels in lubricating oils and hydraulic oils, with the outer casing removed. Figure 4 This diagram illustrates the structure of the front surface portion of a visual turbidity measuring device according to an embodiment of the present invention, used to identify particle disturbances caused by soft particles and moisture contamination when measuring particle contamination levels in lubricating oil and hydraulic oil, with the front surface door open. Figure 5 The image shown is a photograph of the lowering of the measuring section cover during measurement, illustrating an embodiment of the visual turbidity measuring device for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination levels in lubricating oil and hydraulic oil. Figure 6 The image shown is a photograph of the rising outer casing of the measuring section of a visual turbidity measuring device according to an embodiment of the present invention for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination in lubricating oil and hydraulic oil, in standby mode. Figure 7 The image shows a photograph of a sample measurement of a visual turbidity measuring device according to an embodiment of the present invention for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination in lubricating oil and hydraulic oil.
[0035] The measuring device body 110 is structured to form a space for the measuring section outer cover 111, which houses the sample cover for taking samples as samples for measuring particle contamination levels in lubricating oil and hydraulic oil. For example, respectively in... Figures 3 to 7 As shown, the main body 110 of this measuring device also includes a front surface door 112, which opens and closes on the front surface of the space of the measuring section cover 111, which houses a sample cover for measuring the particle contamination level in lubricating oil and hydraulic oil. The sample cover is a sample container filled with lubricating oil or hydraulic oil, used for measuring the particle contamination level in lubricating oil and hydraulic oil, and may be made of a transparent bottle.
[0036] Furthermore, as in respectively Figures 3 to 7 As shown, the measuring device body 110 forms an outer casing structure, which is provided with a front surface door 112 that can be opened and closed on the front surface of the space of the measuring unit outer casing 111, where a sample outer casing for measuring particle contamination levels in lubricating oil and hydraulic oil is placed. The space of the measuring unit outer casing 111 can be opened and closed by opening and closing the front surface door 112, and a portion of the front surface of the front surface door 112 can be made of a transparent material. That is, even when the front surface door 112 is closed, the interior of the space of the measuring unit outer casing 111 can be clearly observed with the naked eye. For example, Figure 3 The camera 151 of the imaging management unit 150 (described later) can be installed at the lower end of the front surface door 112, but it is not limited to this and can also be located inside the measuring device body 110, i.e., on the side of the sample. Furthermore, a portion of the side of the space forming the measuring unit cover 111 of the measuring device body 110 can be made of a transparent material that allows the interior to be seen.
[0037] The turbidity chart 120 is designed so that the degree of contamination can be visually confirmed and diagnosed from the rear surface of the sample cover, which is located within the space of the measuring section cover 111 of the measuring device body 110. This turbidity chart 120 is an ASTM Bar Chart (International Standard ASTM D4176) that allows for visual confirmation and diagnosis of the presence of moisture, thermal deposits, and particulate contaminants in lubricating oil or hydraulic oil. Specifically, the turbidity chart 120 performs the function of visually confirming and diagnosing the contamination level of lubricating oil or hydraulic oil. That is, as a background plate for confirming the turbidity of the oil, it enables visual management of lubrication.
[0038] The laser optical sensor 130 is a structure used to measure the contamination level of a sample cover disposed within the space of the measuring section cover 111 of the measuring device body 110. This laser optical sensor 130 can be used in conjunction with the visual management of the turbidity chart 120 for electronic contamination measurement. The laser optical sensor 130 can be positioned at a location where the contamination level of the sample cover disposed within the space of the measuring section cover 111 of the measuring device body 110 can be measured using laser technology.
[0039] The display 140 is structured to show the results of the contamination measurement of the sample cover as measured by the laser optical sensor 130. For example... Figure 3 The display 140 is located on the upper left side of the front surface of the measuring device body 110, allowing the administrator to confirm the measurement results. The display 140 can display the color values of the measurement results numerically under the control of the control unit 160. Furthermore, the display 140 can be configured as a touchpad that allows user operation.
[0040] The image management unit 150 stores and manages images of the sample casing located in the space of the measuring device body 110. For example... Figure 2 The image management unit 150 may include: a camera 151 for capturing images of the sample cover disposed within the space of the measuring unit cover 111 of the measuring device body 110; an illumination 152 for providing illumination light when capturing images of the sample cover disposed within the space of the measuring unit cover 111 of the measuring device body 110; and a storage unit 153 for storing images of the sample cover captured by the camera 151. The image management unit 150 functions to perform standardized image management based on the captured images, using both the camera 151 disposed within the measuring device body 110 and the illumination 152 disposed within the space of the measuring unit cover 111 of the measuring device body 110, under the same illumination light and at the same distance. In this case, the camera 151 may be located at the lower end of the front surface door 112, but is not limited to this; it can be understood as being located on the front surface opposite the location where the turbidity chart 120 is disposed, separated by the sample cover. Furthermore, the camera 151 and the turbidity chart 120 may be located between 80mm and 300mm apart, separated by the sample cover. And, as Figure 3 The illumination 152 may be composed of a pair of vertical rod-shaped LED lights that can provide the same illumination light to the space of the measuring part cover 111 of the measuring device body 110.
[0041] The control unit 160 is a structure for performing control management, which includes at least one function: driving control for contamination measurement of the laser optical sensor 130, display control of the display 140, and image management control of the image management unit 150. This control unit 160 can manage oil images and colors of various devices through a management program, including driving control for contamination measurement of the laser optical sensor 130, display control of the display 140, and image management control of the image management unit 150. The control unit 160 can output the results of particle contamination measurement in lubricating oil and hydraulic oil in document format, or transmit them to external instruments via wired or wireless means.
[0042] As described above, the visual turbidity measuring device 100 can perform a comparative analysis between visual confirmation of contamination based on the turbidity chart 120 and contamination measurement based on the laser optical sensor 130 when measuring particle contamination in lubricating oil and hydraulic oil. The visual turbidity measuring device 100 includes: a measuring device body 110, forming a measuring section outer cover 111 space for placing a sample outer cover that is sampled for measuring particle contamination in lubricating oil and hydraulic oil; and a turbidity chart 120, which is provided in a manner that enables confirmation and diagnosis of the contamination level of the sample outer cover placed in the measuring section outer cover 111 space of the measuring device body 110. A laser optical sensor 130 is used to measure the contamination level of a sample cover disposed in the space of the measuring unit cover 111 of the measuring device body 110; a display 140 is used to display the sample cover contamination level measurement result measured by the laser optical sensor 130 in a manner that allows confirmation; an image management unit 150 is used to capture images of the sample cover disposed in the space of the measuring device body 110 to store and manage them as oil images; and a control unit 160 is used to perform control management, the control management including at least one of the following functions: contamination level measurement drive control of the laser optical sensor 130, display control of the display 140, and image management control of the image management unit 150.
[0043] Furthermore, the visual turbidity measuring device 100 can promptly identify a malfunction of the laser optical sensor 130 by analyzing the interplay between visual measurements based on the turbidity chart 120 and contamination measurements based on the laser optical sensor 130. This turbidity measuring device 100 allows for easy visual confirmation and diagnosis, not only improving measurement reliability through dual measurement of electronic contamination levels but also enabling visual management as a fundamental aspect of lubrication management, meeting international standards by using the ASTM Bar Chart.
[0044] As described above, an embodiment of the present invention provides a visual turbidity measuring device for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination levels in lubricating oil and hydraulic oil. The device includes: a measuring device body forming a measuring section outer casing space for housing a sample outer casing sampled for measuring particle contamination levels in lubricating oil and hydraulic oil; a turbidity chart configured to confirm and diagnose the contamination level of the sample outer casing disposed in the measuring section outer casing space of the measuring device body; a laser optical sensor for measuring the contamination level of the sample outer casing disposed in the measuring section outer casing space of the measuring device body; a display for displaying the contamination level measurement result of the sample outer casing measured by the laser optical sensor; an image management unit for capturing and storing images of the sample outer casing disposed in the space of the measuring device body as oil images; and a control unit for performing control management, the control management including driving the contamination level measurement of the laser optical sensor. By controlling at least one of the functions of display control of the display and image management control of the shooting management unit, the present invention can realize the mutual comparative analysis between visual confirmation and diagnosis based on turbidity charts and electronic contamination measurement based on laser optical sensors. In particular, by comparing and analyzing the mutual comparative analysis between visual confirmation and diagnosis based on turbidity charts and electronic contamination measurement based on laser optical sensors, it is possible to identify laser optical sensors in a timely manner when they malfunction. This allows for both simple usage and visual management as a basic lubrication management method. Furthermore, by realizing the mutual comparative analysis between visual confirmation and diagnosis based on turbidity charts and electronic contamination measurement based on laser optical sensors, dual measurement of contamination, both visual and electronic, enables intuitive measurement by managers and further improves measurement accuracy.
[0045] The description of the present invention is for illustrative purposes only, and those skilled in the art will understand that it can be easily modified into other specific embodiments without changing the technical concept or essential features of the invention. Therefore, the various embodiments described above are exemplary in all respects and not limiting. For example, the various structural elements described in a single form can also be implemented separately, and similarly, the multiple structural elements described separately can also be implemented in a combined form.
[0046] The scope of this invention is defined by the appended claims, rather than by the detailed description described herein. The meaning and scope of the claims, as well as all modifications or variations derived from their equivalents, should be interpreted as being included within the scope of this invention.
Claims
1. A visual turbidity measuring device for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination levels in lubricating oils and hydraulic oils, characterized in that, include: The measuring device body forms a measuring unit outer cover space to house the sample cover for taking samples as samples for measuring the particle contamination level in lubricating oil and hydraulic oil; The turbidity chart is provided in a manner that allows for the confirmation and diagnosis of the contamination level of the sample cover located in the space of the measuring section of the measuring device body. A laser optical sensor is used to measure the contamination level of a sample cover disposed in the outer space of the measuring section of the measuring device body. A display for showing the contamination measurement results of the sample cover as measured by the laser optical sensor; The image management unit stores and manages images of the sample casing located in the space of the measuring device body as oil images; and The control unit is used to perform control management, which includes at least one of the following functions: pollution level measurement drive control of the laser optical sensor, display control of the display, and image management control of the shooting management unit.
2. The visual turbidity measuring device according to claim 1 for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination in lubricating oil and hydraulic oil, characterized in that, The visual turbidity measuring device enables a comparative analysis between visual confirmation of contamination based on the turbidity chart and contamination measurement based on the laser optical sensor when measuring particle contamination in lubricating oil and hydraulic oil.
3. The visual turbidity measuring device according to claim 2 for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination in lubricating oil and hydraulic oil, characterized in that, By analyzing the interplay between visual measurements based on the turbidity chart and contamination measurements based on the laser optical sensor, the visual turbidity measurement device can promptly identify malfunctions in the laser optical sensor.
4. The visual turbidity measuring device according to any one of claims 1 to 3 for identifying particle disturbances caused by soft particle and moisture contamination when measuring particle contamination levels in lubricating oil and hydraulic oil, characterized in that, The measuring device body also includes a front surface door, which opens and closes on the front surface of the measuring section outer cover space for housing a sample outer cover for measuring particle contamination levels in lubricating oil and hydraulic oil.
5. The visual turbidity measuring device according to claim 4 for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination in lubricating oil and hydraulic oil, characterized in that, The filming management department includes: A camera is used to photograph the sample cover located in the outer space of the measuring section of the measuring device body; Illumination, providing illumination light when photographing the sample cover disposed in the outer space of the measuring section of the measuring device body; and The storage unit is used to store images of the sample cover taken by the camera.
6. The visual turbidity measuring device according to claim 5 for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination levels in lubricating oils and hydraulic oils, characterized in that, The shooting management unit performs the following function: it can perform standardized image management based on shooting under the same lighting conditions and at the same distance, using the camera installed on the measuring device body and the lighting provided in the space of the measuring unit enclosure on the measuring device body.
7. The visual turbidity measuring device according to claim 6 for identifying particle disturbances caused by soft particles and moisture contamination when measuring particle contamination levels in lubricating oils and hydraulic oils, characterized in that, The control unit performs the following functions: by including the pollution level measurement drive control of the laser optical sensor, the display control of the display, and the image management control of the image management unit, the oil photos and color management of each device can be realized.