Detection device for aero-engine blade
Through the integrated design of the aero engine blade detection device, the sample weighing and immersion detection are integrated, and the lifting mechanism and control module work together, the error problems caused by multiple manual transfers are solved, achieving high-precision and efficient density detection.
Patent Information
- Application Number
- CN202510645038.2
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-05-20
- Publication Date
- 2025-08-01
AI Technical Summary
In the prior art, the error and accuracy problems caused by multiple manual transfer of samples cannot meet the strict quality control requirements.
Design an integrated aero engine blade detection device, integrate sample weighing and immersion detection, use the lifting mechanism and control module to work together to avoid manual transfer errors, and quickly lift and lower the hanging basket by driving the dual-axis motor to eliminate bubbles to achieve accurate detection.
It improves detection accuracy, simplifies operating procedures, reduces technical requirements for operators, significantly improves detection efficiency, and meets the quality control needs of aircraft engine blade manufacturing.
Smart Images
Figure CN120404480A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of blade density detection, in particular to a detection device for aircraft engine blades. Background Art
[0002] In the field of aero-engine manufacturing, blades are core components, and their density parameters directly affect the engine's aerodynamic performance, fatigue life, and operational stability. Accurate density detection is a key link in ensuring the reliability and safety of aero-engines. At present, the industry generally adopts a technical solution of sampling and cutting and then using a density meter for detection. This process involves multiple precise operating steps and has extremely high requirements for personnel operating specifications and instrument parameter settings. Specifically, the staff need to first place the sampled pieces of aircraft engine blades on the high-precision weighing platform of the density meter. The weighing platform is usually equipped with an electronic balance with a resolution of 0.0001g, which can accurately measure the weight of the sample in the air. Before placing the sample, the operator needs to calibrate the zero point of the balance in advance and ensure that the weighing platform is in a horizontal and stable state to avoid the measurement results being affected by instrument errors. After obtaining the weight data in the air, the staff needs to transfer the sample to a hanging basket in a special water tank. The liquid in the water tank is usually distilled water, and the water temperature needs to be controlled within the range of 20±0.5℃ to maintain the stability of the liquid density. When the sample is completely immersed in water and reaches static equilibrium, the weight data of the sample in water is read again by the density meter. Finally, based on the Archimedean principle, the density meter automatically analyzes and calculates the weight in air and the weight in water to obtain the sample density value. However, during the entire operation, the multiple manual transfers of samples not only consume a lot of time and manpower costs, but each transfer may introduce additional errors due to slight differences in operating force, angle, and speed. For example, when transferring the sample from the weighing table to the water tank basket, slight shaking of the hand may cause water droplets to adhere to the sample surface or scratches, thereby affecting the measurement results. When reading the weight in water, if the sample is not completely immersed or the basket comes into contact with the water tank wall, data deviation will occur. The combination of these human factors makes it difficult to guarantee the accuracy of the test results, and it is impossible to meet the strict quality control requirements for density parameters in the manufacturing process of aircraft engine blades. Summary of the Invention
[0003] Based on this, the purpose of the present invention is to provide a detection device for aircraft engine blades to solve the technical problems in the above-mentioned background technology.
[0004] To achieve the above-mentioned object, the present invention provides the following technical solution: a detection device for an aircraft engine blade, comprising a main body assembly, a detection assembly being provided on the top of the main body assembly, and a weighing frame being plugged into the top of a detection weighing plate of the detection assembly; The detection component further includes a weighing sensor and a circuit board. The weighing sensor is disposed at the inner bottom end of the host component through the electrically connected circuit board. An integrated module electrically connected to the circuit board is also installed inside the host component. One end of the integrated module is fixed with a charging head extending to the outside of the host component. Control modules are installed on both sides of the weighing frame. The control module includes a control board, a connection wire row, conductive holes, and a housing. The control board is fixed between the outer wall of the weighing frame and the biaxial motor and is electrically connected through the connection wire row. The housing covers the outside of the control board to protect it and is fixed to the weighing frame by screws. The conductive holes are fixed at the bottom of one side of the control board, and their ends extend to the outside of the housing. A hanging basket is movably connected to the middle position inside the weighing frame, and the hanging basket is used to hold samples. Lifting mechanisms are installed on both sides of the upper section of the weighing frame. The lifting mechanism includes a winding drum, a traction rope, and a connecting piece. One end of the traction rope is wound around the outside of the winding drum, and the other end is fixedly connected to both sides of the hanging basket through the connecting piece to lift the hanging basket. The lifting mechanism further includes a bottom mounting shell, a biaxial motor, and a transmission shaft. The biaxial motor is installed inside the bottom mounting shell, and the bottom mounting shell is connected to the weighing frame by screws. One end of the transmission shaft is fixedly connected to the winding drum, and the other end is fixedly connected to the output end of the biaxial motor to drive the winding drum. The lifting mechanism further includes a fixed shaft, a limiting wheel, and a support seat. Each group of fixed shafts is arranged on the top of the weighing frame through the support seat, and two groups of limiting wheels are movably connected to the outer ends of both sides of the fixed shaft to guide and limit the traction rope, improving the stability of the hanging basket during lifting. A weighing sensor connected to the detection weighing plate is installed inside the host component, and the weighing sensor is used to measure weight. Fixing columns penetrating the detection weighing plate are fixed at the four corners of the top of the host component, and a water tank component is placed on the tops of the four groups of fixing columns above the detection weighing plate. Retractable wire mechanisms are installed on both sides inside the host component. The retractable wire mechanism includes a winding wheel and a conductive head. A wire with one end connected to the conductive head and the other end electrically connected to the integrated module is wound around the outside of the winding wheel. When the conductive head is pulled, the winding wheel is driven to release the wire, enabling the conductive head to be inserted into the conductive hole. The retractable wire mechanism further includes a support frame, a connection guiding block, and a torsion spring. Both ends between the support frame and the winding wheel are movably connected through the torsion spring, and the connection guiding block is fixed on both sides of the inner wall of the host component to guide the wire, guiding the wire after it is pulled out. The water tank component is composed of a water tank box, fixing holes, and a pick-up and placement plate. Fixing holes opened at the four corners of the bottom of the water tank box are inserted into the four groups of fixing columns to support the water tank box, and two groups of pick-up and placement plates are fixed at both ends of the water tank box to carry the water tank box. The detection component further includes through holes and positioning grooves. The through holes are opened at the four corners of the detection weighing plate, and the diameter of the through holes is larger than that of the fixing posts. The two groups of positioning grooves are fixed on both sides of the top of the detection weighing plate to play a role in positioning and installing the weighing frame.
[0005] By adopting the above technical solutions, in terms of detection accuracy, the device integrates sample weighing and immersion detection, avoiding errors caused by multiple manual transfers of samples in traditional methods, such as preventing scratches on the sample surface and avoiding problems such as the hanging basket contacting the water tank wall, making the detection results more accurate and meeting the strict quality control requirements for density parameters in the manufacturing of aeroengine blades. In terms of operation, the lifting mechanism, control module and detection component work together, and the staff can complete various detection operations through the operation panel, simplifying the detection process and reducing the technical requirements for operators. In terms of detection efficiency, the dual-axis motor drives the hanging basket to quickly rise and fall, which can effectively eliminate bubbles, and the integrated design of the equipment reduces the operation steps, greatly improving the overall detection efficiency and providing a strong guarantee for the quality detection of aeroengine blades.
[0006] Furthermore, the lifting mechanism further includes a top mounting shell, a protective shell, a plugging post and heat dissipation holes. The top mounting shell is fixed on the top of the weighing frame to protect the dual-axis motor, and the protective shell is located above the top mounting shell and is connected to the weighing frame through the plugging post.
[0007] By adopting the above technical solutions, the heat dissipation holes opened on the outer sides of the top mounting shell and the protective shell play a role in dissipating heat from the dual-axis motor.
[0008] In summary, the present invention mainly has the following beneficial effects: In terms of detection accuracy, the device integrates sample weighing and immersion detection, avoiding errors caused by multiple manual transfers of samples in traditional methods, such as preventing scratches on the sample surface and avoiding problems such as the hanging basket contacting the water tank wall, making the detection results more accurate and meeting the strict quality control requirements for density parameters in the manufacturing of aeroengine blades. In terms of operation, the lifting mechanism, control module and detection component work together, and the staff can complete various detection operations through the operation panel, simplifying the detection process and reducing the technical requirements for operators. In terms of detection efficiency, the dual-axis motor drives the hanging basket to quickly rise and fall, which can effectively eliminate bubbles, and the integrated design of the equipment reduces the operation steps, greatly improving the overall detection efficiency and providing a strong guarantee for the quality detection of aeroengine blades. Description of the Drawings
[0009] Figure 1 is the overall structural schematic diagram of the present invention; Figure 2 is the structural exploded view of the main machine component of the present invention; Figure 3Schematic diagram of the detection component of the present invention; Figure 4 Enlarged structural view of the telescopic wire mechanism of the present invention; Figure 5 Schematic diagram of the structure of the water tank component of the present invention; Figure 6 Enlarged exploded view of the structure of the weighing frame of the present invention; Figure 7 For the present invention Figure 6 Enlarged view at location A; Figure 8 Enlarged exploded view of the structure of the lifting mechanism of the present invention; Figure 9 Enlarged cross-sectional view of the weighing frame of the present invention; Figure 10 For the present invention Figure 9 Enlarged view at location B; Figure 11 For the present invention Figure 9 Enlarged view at location C.
[0010] In the figure: 1. Main body component; 2. Fixed column; 3. Water tank component; 301. Water tank box; 302. Fixed hole; 303. Pick-and-place plate; 4. Weighing frame; 5. Hanging basket; 501. Water-permeable hole; 502. Limiting plate; 6. Lifting mechanism; 601. Bottom mounting shell; 602. Biaxial motor; 603. Reel; 604. Transmission shaft; 605. Fixed shaft; 606. Traction rope; 607. Limiting wheel; 608. Connecting piece; 609. Support; 610. Top mounting shell; 611. Protective shell; 612. Insertion column; 613. Heat dissipation hole; 7. Control module; 701. Control board; 702. Connection wire row; 703. Conductive hole; 704. Outer shell; 8. Telescopic wire mechanism; 801. Support frame; 802. Winding wheel; 803. Connecting guide block; 804. Conductive head; 805. Torsion spring; 9. Detection component; 901. Detection weighing plate; 902. Weighing sensor; 903. Circuit board; 904. Through hole; 905. Positioning groove; 10. Integrated module; 11. Charging head; 12. Operation board; 13. Handle. Detailed implementation method
[0011] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. The embodiments described below with reference to the accompanying drawings are exemplary and are only used to explain the present invention and should not be construed as limiting the present invention.
[0012] Next, the embodiments of the present invention will be described based on the overall structure of the present invention. Embodiment 1
[0013] As Figures 1-11As shown in the figure, this embodiment focuses on the aero-engine blade detection device, and its structural design focuses on precise detection, convenient operation and stable operation. It is mainly composed of components such as the host component 1, the detection component 9, the weighing frame 4, the lifting mechanism 6, and the water tank component 3; The host component 1 is made of high-strength aluminum alloy by die-casting process, with good strength and stability. Adjustable support feet are installed at the bottom to facilitate the adjustment of the equipment level. Telescopic wire mechanisms 8 are installed on both sides inside. The support frame 801 is fixed to the inner wall of the host component 1. The winding wheel 802 is movably connected to the support frame 801 through a torsion spring 805. The connecting guide block 803 guides the wire. The wire is wound around the outside of the winding wheel 802, one end is connected to the conductive head 804, and the other end is electrically connected to the integrated module 10; A weighing sensor 902, a circuit board 903 and an integrated module 10 are installed at the bottom end inside the host component 1. The weighing sensor 902 is electrically connected to the integrated module 10 through the circuit board 903. The integrated module 10 has functions of data processing, storage and control. The charging head 11 is connected to the integrated module 10 for charging the equipment. Fixed columns 2 are fixed at the four corners of the top of the host component 1 to provide support for the water tank component 3. The operation panel 12 is installed on the side of the host component 1, with operation buttons such as start button, zero button, save button and a display screen set on it, which is convenient for the staff to operate and view data; The detection weighing plate 901 of the detection component 9 is made of stainless steel, with a flat and smooth surface. Through holes 904 are opened at the four corners, and the diameter is larger than the diameter of the fixed column 2, which is convenient for installation and positioning. Positioning grooves 905 are provided on both sides of the top for positioning and installing the weighing frame 4. The weighing sensor 902 is installed under the detection weighing plate 901 to accurately measure the weight of the object placed on the detection weighing plate 901 and transmit the data to the circuit board 903 and the integrated module 10; The weighing frame 4 is made of lightweight and high-strength carbon fiber material. Handles 13 are fixed on both sides, which is convenient for picking up and placing the weighing frame 4. A hanging basket 5 is movably connected at the middle position inside. Water permeable holes 501 are opened at the bottom and around the hanging basket 5 to facilitate the flow of liquid. Limit plates 502 are installed on both sides to play a role in limiting the hanging basket 5 when it rises to the initial position; Lifting mechanisms 6 are installed on both sides of the weighing frame 4. The bottom mounting shell 601 is connected to the weighing frame 4 by screws. A dual-axis motor 602 is installed inside. The output end of the dual-axis motor 602 is connected to a transmission shaft 604. The other end of the transmission shaft 604 is fixed to a reel 603 to drive the reel 603 to rotate. A fixed shaft 605 is installed on the top of the weighing frame 4 through a support 609. Limit wheels 607 are movably connected to both ends to guide and limit the traction rope 606. One end of the traction rope 606 is wound around the reel 603, and the other end is fixedly connected to both sides of the hanging basket 5 through a connecting piece 608. The top mounting shell 610 is fixed on the top of the weighing frame 4 to protect the dual-axis motor 602. The protective shell 611 is connected to the top mounting shell 610 through a plug-in column 612. Heat dissipation holes 613 are opened on the outer sides of the top mounting shell 610 and the protective shell 611 to dissipate heat from the dual-axis motor 602; Control modules 7 are installed on both sides of the weighing frame 4. The control board 701 is fixed to the outer wall of the weighing frame 4 and is electrically connected to the dual-axis motor 602 through a connection wire harness 702 to control the dual-axis motor 602. The outer shell 704 covers the outside of the control board 701 and is fixed to the weighing frame 4 by screws to play a protective role. The conductive hole 703 is fixed to the bottom of one side of the control board 701, and the end extends to the outside of the outer shell 704 for plugging with the conductive head 804 of the telescopic wire mechanism 8 to achieve power and signal transmission; The water tank box 301 of the water tank assembly 3 is made of transparent acrylic material, which is convenient for observing the internal situation. Fixing holes 302 are opened at the four corners of the bottom and are inserted into the fixing columns 2 to achieve stable support of the water tank box 301. Take-and-place plates 303 are fixed at both ends of the water tank box 301 to facilitate handling of the water tank box 301; Equipment Preparation and Installation In a laboratory or testing site, place the main unit assembly 1 on a stable laboratory bench. By adjusting the bottom support feet, keep the main unit assembly 1 horizontal. Connect the charging head 11 to an external power supply device with a power cord to power on the equipment. Remove the water tank box 301 from the main unit assembly 1, inject distilled water into the water tank box 301 until the liquid level reaches the maximum liquid level position. Note that the water temperature is controlled within the range of 20±0.5°C. Align the fixing holes 302 at the bottom of the water tank box 301 with the fixing columns 2 at the top of the main unit assembly 1 and slowly lower it to install the water tank assembly 3 on the top of the main unit assembly 1.
[0014] Weighing Frame Installation and Zeroing Operation Align the two sides at the bottom of the weighing frame 4 with the positioning slots 905 on the detection weighing plate 901 and insert them for positioning to ensure stable installation. Press the start button on the operation panel 12 to start the main unit assembly 1. At this time, the weighing sensor 902 starts to work. The main unit assembly 1 weighs the entire weighing frame 4 through the weighing sensor 902. The display screen of the operation panel 12 shows the weighing result. Press the zero button to perform a zeroing operation on the overall weight to prepare for subsequent sample weighing.
[0015] Weighing the Sample in Air and Saving the Data The staff uses tools such as tweezers to carefully place the sample obtained from the aero-engine blade on the top of the hanging basket 5. The weighing sensor 902 measures the weight of the sample in air. The data is transmitted to the integration module 10 via the circuit board 903. After the integration module 10 analyzes and calculates, the air quality of the sample is displayed on the display screen of the operation panel 12. The staff presses the save button to save the data into the integration module 10. Then, the staff picks up the sample with tweezers again, presses the clear button to clear the current weight data, and then puts the sample back into the hanging basket 5.
[0016] Weighing the Sample in Water and Calculating the Density Press the control button on the operation panel 12 to start the dual-axis motor 602 located on both sides of the weighing frame 4. The rotation of the dual-axis motor 602 drives the reel 603 to rotate. The reel 603 winds up the towing rope 606. Under the guiding and limiting action of the limiting wheel 607, the hanging basket 5 and the sample gradually descend into the inside of the water tank box 301, ensuring that the liquid level in the water tank box 301 completely covers the top of the sample, and the hanging basket 5 and the sample are suspended in the middle position inside the water tank box 301 without contacting the bottom and side walls of the water tank box 301; Start the forward and reverse program of the dual-axis motor 602 to make the hanging basket 5 and the sample perform lifting and lowering operations inside the water tank box 301 to eliminate the bubbles generated when entering the water. The weighing sensor 902 measures the weight of the sample in water. The display screen of the operation panel 12 shows the weight of the sample, the hanging basket 5, and the connecting piece 608 as a whole in water. The staff presses the save button. The integration module 10 calculates the density of the sample according to the preset weight values of the hanging basket 5 and the connecting piece 608 in water and combines Archimedes' principle, and displays the result on the operation panel 12.
[0017] Taking out the Sample and Organizing the Equipment After the measurement is completed, press the reverse control button on the operation panel 12. The dual-axis motor 602 rotates in reverse, and the reel 603 releases the towing rope 606. The hanging basket 5 and the sample rise to the initial position. The staff uses tweezers to take out the sample from the hanging basket 5 and place it properly. Pull out the conductive head 804 of the telescopic wire mechanism 8 from the conductive hole 703. The wire is automatically wound up under the action of the torsion spring 805. Turn off the power of the main machine assembly 1, clean the distilled water in the water tank box 301, and organize and put the various components of the equipment in place to prepare for the next detection.
[0018] The working principle of the present invention is as follows: When in use, place the main machine assembly 1 on a stable tabletop to keep it stable. The support feet at its bottom can be used to make a relatively horizontal adjustment of the main machine assembly 1. Then, make the charging head 11 and an external power supply device be plugged into each other through the power cord, so that the main machine assembly 1 can be powered on and operated after being energized. At this time, the staff starts the main machine assembly 1 through the start button on the operation panel 12; First, the staff injects distilled water into the inside of the water tank box 301 to make the liquid level of the distilled water reach the maximum liquid level position of the water tank box 301. At this time, the water tank box 301 is aligned with the fixing posts 2 on the top of the main machine assembly 1 through four groups of fixing holes 302 at the bottom. Then, the water tank assembly 3 is located on the top of the main machine assembly 1, and its bottom does not contact the detection weighing plate 901 of the detection assembly 9. Then, the staff places the weighing frame 4 on the top of the detection weighing plate 901. The two sides at the bottom of the weighing frame 4 are inserted into the positioning grooves 905 on the detection weighing plate 901. Since the weighing frame 4 is composed of a hanging basket 5, two sets of lifting mechanisms 6, two sets of control modules 7 and other components as a whole, at this time, the main machine assembly 1 can weigh the whole weighing frame 4 through the weighing sensor 902, and its overall weight is displayed on the display screen of the operation panel 12. Then, the staff clears the overall weight through the clear button on the operation panel 12. After the clearing is completed, the staff uses tools such as tweezers to place the object to be measured, that is, the sample obtained from the aero-engine blade, on the top of the hanging basket 5. At this time, under the action of the weighing sensor 902, the sample is weighed in the air. At the same time, under the analysis and calculation of the integrated module 10, the air quality of the sample is displayed on the display screen of the operation panel 12 at this time. Then, the data is saved through the save button on the operation panel 12. After saving, the sample is picked up with tweezers again, and then the clear button is clicked again. After completion, the sample is placed on the hanging basket 5 again. At this time, the two-shaft motors 602 of the two sets of lifting mechanisms 6 located on both sides of the weighing frame 4 start to run. The rotation of the two-shaft motors 602 drives the winding drums 603 to rotate, so that the winding drums 603 drive the traction ropes 606 to wind up. Thus, under the limiting action of the limiting wheels 607, the hanging basket 5 with the sample is lowered. At this time, the hanging basket 5 drives the sample to gradually descend into the inside of the water tank box 301 under its own gravity, so that the liquid level inside the water tank box 301 completely covers the top of the sample, and the hanging basket 5 and the sample are suspended at the middle position inside the water tank box 301 to avoid contacting the bottom and side walls of the water tank box 301. Furthermore, when the hanging basket 5 and the sample are lowered into the inside of the water tank box 301 through the traction rope 606, at this time, the two-shaft motor 602 starts the positive and negative rotation program, and then the traction rope 606 can be wound up and lowered in a short time, so that the hanging basket 5 and the sample perform lifting and lowering operations at a certain speed inside the water tank box 301. Thus, the bubbles generated when the hanging basket 5 and the sample enter the water can be effectively eliminated, avoiding affecting the measurement structure of the sample density. Then, the load cell 902 detects the weight of the sample in water again. At this time, the display screen on the operation panel 12 shows the weight of the whole sample, the hanging basket 5 and the connecting piece 608 in water. The weights of the hanging basket 5 and the connecting piece 608 in water are preset inside the integrated module 10. At this time, the staff clicks the save button again. Then, through the calculation and analysis of the integrated module 10, subtracting the values of the weights of the hanging basket 5 and the connecting piece 608 in water, and according to Archimedes' principle, the density of the sample can be obtained; After completion, at this time, the lifting mechanism 6 runs in the reverse direction to lift the hanging basket 5 and the sample to the initial position. At this time, the staff only needs to use tools such as tweezers to clamp and take away the sample. As described above, it effectively avoids the problem that when transferring the sample from the weighing platform to the water tank hanging basket, slight shaking of the hand may cause water droplets to adhere to the surface of the sample or scratches to occur, thereby affecting the measurement result. At the same time, it avoids the problem of data deviation when reading the weight in water, if the sample is not completely immersed or the hanging basket contacts the inner wall of the water tank box 301. After effectively avoiding human factors through this equipment, the accuracy of the detection result is more accurate, which well meets the strict quality control requirements for density parameters in the manufacturing process of aeroengine blades; Furthermore, after the weighing frame 4 is installed, at this time, the conductive head 804 of the telescopic wire mechanism 8 is pulled out, and after the conductive head 804 is pulled out, it is inserted into the inside of the conductive hole 703. Then, the host component 1 can perform operations of power transmission and signal transmission on the two groups of lifting mechanisms 6 and the control module 7.
[0019] Although the embodiments of the present invention have been shown and described, the specific embodiments are only explanations of the present invention, and they are not limitations of the invention. The specific features, structures, materials or characteristics described can be combined in a suitable manner in any one or more embodiments or examples. After reading this specification, those skilled in the art can, without departing from the principles and purposes of the present invention, make modifications, substitutions and variations that do not contribute creatively to the embodiments as needed, but as long as they are within the scope of the claims of the present invention, they are protected by the patent law.
Claims
1. A detection device for an aeroengine blade, comprising a main machine assembly (1), characterized in that: A detection component (9) is provided at the top of the host component (1), and a weighing frame (4) is inserted into the top of the detection weighing plate (901) of the detection component (9); A hanging basket (5) is movably connected to the middle position inside the weighing frame (4), and the hanging basket (5) is used for holding samples. Lifting mechanisms (6) are installed on both sides of the weighing frame (4). The lifting mechanism (6) includes a reel (603), a traction rope (606), and a connecting piece (608). One end of the traction rope (606) is wound around the outside of the reel (603), and the other end is fixedly connected to both sides of the hanging basket (5) through the connecting piece (608) to lift the hanging basket (5); A weighing sensor (902) connected to the detection weighing plate (901) is installed inside the host component (1), and the weighing sensor (902) is used to measure the weight. Fixed columns (2) penetrating the detection weighing plate (901) are fixed at the four corners of the top of the host component (1), and a water tank component (3) located above the detection weighing plate (901) is placed on the tops of the four groups of fixed columns (2).
2. The detection device for an aeroengine blade according to claim 1, characterized in that: The detection component (9) further includes a weighing sensor (902) and a circuit board (903). The weighing sensor (902) is arranged at the bottom end inside the host component (1) through the electrically connected circuit board (903). An integrated module (10) electrically connected to the circuit board (903) is also installed inside the host component (1), and a charging head (11) extending to the outside of the host component (1) is fixed at one end of the integrated module (10).
3. The detection device for an aeroengine blade according to claim 1, characterized in that: The lifting mechanism (6) further includes a bottom mounting shell (601), a dual-axis motor (602), and a transmission shaft (604). The dual-axis motor (602) is installed inside the bottom mounting shell (601), and the bottom mounting shell (601) is connected to the weighing frame (4) by screws. One end of the transmission shaft (604) is fixedly connected to the reel (603), and the other end is fixedly connected to the output end of the dual-axis motor (602) to drive the reel (603).
4. The detection device for an aeroengine blade according to claim 1, wherein: The lifting mechanism (6) further includes a fixed shaft (605), a limiting wheel (607), and a support (609). Each group of fixed shafts (605) is arranged at the top of the weighing frame (4) through the support (609), and two groups of limiting wheels (607) are movably connected to the outer ends of both sides of the fixed shaft (605) to guide and limit the traction rope (606), improving the stability of the hanging basket (5) during lifting.
5. The detection device for an aeroengine blade according to claim 3, characterized in that: The lifting mechanism (6) further includes a top mounting shell (610), a protective shell (611), a plug-in column (612), and a heat dissipation hole (613). The top mounting shell (610) is fixed at the top of the weighing frame (4) to protect the dual-axis motor (602). The protective shell (611) is located above the top mounting shell (610) and is connected to the weighing frame (4) through the plug-in column (612). Heat dissipation holes (613) are opened on the outer sides of the top mounting shell (610) and the protective shell (611) to dissipate heat from the dual-axis motor (602).
6. The detection device for an aero-engine blade according to claim 3, characterized in that: Control modules (7) are installed on both sides of the weighing frame (4), and the control module (7) includes a control board (701), a connection wire row (702), a conductive hole (703), and a housing (704). The control board (701) is fixed between the outer wall of the weighing frame (4) and the dual-axis motor (602) and is electrically connected through the connection wire row (702). The housing (704) covers the outside of the control board (701) to protect it and is fixed to the weighing frame (4) by screws. The conductive hole (703) is fixed at the bottom of one side of the control board (701), and its end extends to the outside of the housing (704).
7. The detecting device for an aero-engine blade according to claim 2, wherein: Retractable wire mechanisms (8) are installed on both sides inside the main machine assembly (1), and the retractable wire mechanism (8) includes a winding wheel (802) and a conductive head (804). A wire is wound around the outside of the winding wheel (802), one end of which is connected to the conductive head (804) and the other end is electrically connected to the integrated module (10). When the conductive head (804) is pulled, the winding wheel (802) is driven to release the wire, so that the conductive head (804) is inserted into the conductive hole (703).
8. The detection device for an aero-engine blade according to claim 7, characterized in that: The retractable wire mechanism (8) further includes a support frame (801), a connection guide block (803), and a torsion spring (805). Both ends between the support frame (801) and the winding wheel (802) are movably connected by the torsion spring (805), and the connection guide block (803) is fixed to both sides of the inner wall of the main machine assembly (1) to guide the wire, so as to guide the wire after it is pulled out.
9. The detection device for an aero-engine blade according to claim 1, wherein: The water tank assembly (3) is composed of a water tank box (301), fixing holes (302), and a pick-up and placement plate (303). Fixing holes (302) opened at the four corners of the bottom of the water tank box (301) are inserted into four groups of fixing columns (2) to support the water tank box (301), and two groups of pick-up and placement plates (303) are fixed at both ends of the water tank box (301) to carry the water tank box (301).
10. The detection device for an aeroengine blade according to claim 9, characterized in that: The detection component (9) further includes a through hole (904) and a positioning groove (905). The through hole (904) is opened at the four corners of the detection weighing plate (901), and the diameter of the through hole (904) is larger than the diameter of the fixing column (2). Two groups of the positioning grooves (905) are fixed on both sides of the top of the detection weighing plate (901) to position and install the weighing frame (4).