Lithium battery electrolyte detection equipment

Abstract

The invention relates to lithium battery electrolyte detection equipment, which belongs to the technical field of batteries, and comprises a supporting frame, the supporting frame is a rectangular cuboid, a driving device I is arranged at the bottom of a supporting frame assembly, the driving device I is connected with a rotating device, guide rails are arranged on two sides of the rotating device, and the rotating device is connected with the guide rails through sliding blocks. A radiography detection table is arranged on the outer side of the rotating device, the rotating device is connected with the radiography detection table through a coupler, the driving device I controls the radiography detection table to move up and down, and the rotating device controls the radiography detection table to rotate along the axis; the problem that traditional equipment does not have a rotation detection function is solved.

Description

Technical Field

[0001] The present invention relates to a lithium battery electrolyte detection device, belonging to the field of battery production. Background Art

[0002] The background art of lithium battery electrolyte detection devices involves multiple fields, including battery technology, electrochemistry analysis, materials science, etc. In the field of battery technology, in order to improve the energy density and power density of batteries, it is necessary to research and develop efficient electrolyte materials and preparation processes. At the same time, in order to ensure the safety and stability of batteries, it is necessary to develop reliable electrolyte detection devices for detecting parameters such as the composition, concentration, and moisture content of electrolytes in batteries.

[0003] According to an electrolyte and primary aluminum full-automatic sample preparation and detection device disclosed in Chinese invention patent CN110514501A, it includes a hardware system and a control system. The hardware system includes an equipment outer cover, which integrates a feeding module, an electrolyte pre-crushing module, an aluminum sample cutting module, a pure alcohol dropping module, an electrolyte vibration grinding sample module, an electrolyte powder pouring-pushing module, an electrolyte tablet pressing sample module, a composition detection module, an internal logistics transfer module of the equipment, a vibration grinding sample box cleaning module, and a pressing sample steel ring cleaning and waste collection module into one, forming a machine tool integrated structure; it also includes a control system, which is mainly composed of a PLC unit control system and an industrial computer general control system. After the equipment is integrated, one-key operation is realized. Except for loading and unloading, the rest of the action processes are automated, and the data information management is intelligent. The present invention is used for the sample preparation and detection of electrolytes and primary aluminum in the electrolytic aluminum industry, and has the advantages of small floor space, low labor cost, high detection efficiency, good detection quality, remarkable production efficiency, and high automation degree.

[0004] Traditional equipment does not have a rotation detection function. Summary of the Invention

[0005] The technical problem to be solved by the present invention is the problem that traditional equipment does not have a rotation detection function.

[0006] A lithium battery electrolyte detection device described in the present invention includes a support frame. The support frame is in the shape of a rectangular cuboid. A driving device I is provided at the bottom of the support frame assembly. The driving device I is connected to a rotating device. Guide rails are arranged on both sides of the rotating device. The rotating device is connected to the guide rails through sliders. A contrast detection table is provided outside the rotating device. The rotating device is connected to the contrast detection table through a coupling. The driving device I controls the up and down movement of the contrast detection table, and the rotating device controls the rotation of the contrast detection table along the axis.

[0007] By setting up a support frame, the support frame can provide support for the overall device and an installation frame. By setting the support frame to be a vertical rectangular cuboid, the vertical cuboid conforms to the principle of human-machine design. By setting that there is a driving device Ⅰ at the bottom of the support frame assembly, the driving device Ⅰ can provide an appropriate torque through the installation support of the support frame assembly. By setting that the driving device Ⅰ is connected to a rotating device, the driving device Ⅰ can control the rotating device to move along a specified path during operation. By setting that guide rails are arranged on both sides of the rotating device, through the cooperation between the slider and the guide rail, the rotating device is connected to the guide rail through the slider to prevent the rotating device from shifting, enabling the rotating device to move along the specified path. By setting that there is a contrast detection table outside the rotating device, as an execution component, the contrast detection table can perform quality inspection on the electrolyte of the lithium battery. By setting that the rotating device is connected to the contrast detection table through a coupling, the rotating device can control the contrast detection table to rotate around the axis of the coupling itself through the coupling to perform 360° contrast on the lithium battery electrolyte. The overall device is divided into two stroke actions. First, the driving device Ⅰ controls the up and down movement of the contrast detection table to adapt to the height differences of different patients. The second movement stroke is the self-rotation contrast of the contrast detection table around the rotating device.

[0008] Furthermore, the contrast detection table is in a gate shape. The corners of the contrast detection table are reinforced by reinforcing plates. There is a connecting piece in the middle of the contrast detection table, and the rotating device is connected to the contrast detection table through the connecting piece.

[0009] By setting the contrast detection table to be in a gate shape, the corresponding position of the gate shape is the standing position for patient measurement. By setting that the corners of the contrast detection table are reinforced by reinforcing plates, the overall strength can be improved to avoid deformation during use. By setting that there is a connecting piece in the middle of the contrast detection table, the connecting piece can serve as a connecting and transfer piece, and the rotating device can drive the contrast detection table through the connecting piece.

[0010] Furthermore, there is a contrast machine on the top of the contrast detection table. Correspondingly, there is a transparent plate on the bottom surface of the contrast detection table.

[0011] By setting that there is a contrast machine on the top of the contrast detection table and a transparent plate on the bottom surface of the contrast detection table, the contrast machine can detect the electrolyte in the lithium battery through the supporting transparent plate.

[0012] Furthermore, there are door panels on the outside of the support frame. The door panels include door panel Ⅰ, door panel Ⅱ, door panel Ⅲ, and door panel Ⅳ. There is a groove opening on door panel Ⅳ. The groove opening is in a vertical rectangular shape, and the shape of the groove opening is conducive to the corresponding cooperation with the movement of the contrast detection table.

[0013] By setting that a door panel is provided on the outer side of the support frame, the door panel includes door panel I, door panel II, door panel III and door panel IV, a groove opening is provided on door panel IV, and door panel I, door panel II, door panel III and door panel IV. The combination of each door panel can seal the interior of the equipment, avoiding the leakage of parts during the use of the equipment and causing damage to the operators. By setting that a groove opening is provided on door panel IV, the groove opening is a vertical rectangle, and the groove opening can accommodate the coupling, enabling the internal rotating device to connect to the external imaging detection table without interference from the door panel during the up and down movement.

[0014] Furthermore, a reinforcing support platform is provided at the bottom of the support frame, and the reinforcing support platform is located at the bottom of the imaging detection table.

[0015] By setting that a reinforcing support platform is provided at the bottom of the support frame and the reinforcing support platform is located at the bottom of the imaging detection table, the reinforcing support platform can further support and reinforce the support frame, ensuring stability during use.

[0016] Furthermore, a guard plate is provided to be adapted to the connecting piece.

[0017] By setting the guard plate adapted to the connecting piece, it can prevent damage to personnel during use.

[0018] Compared with the prior art, the beneficial effects of the present invention are:

[0019] For a lithium battery electrolyte detection device described in the present invention, by setting the support frame, the support frame can provide support and an installation frame for the overall equipment. By setting that the support frame is a vertical rectangular cuboid, the vertical rectangular cuboid conforms to the principle of human-machine design. By setting that a driving device I is provided at the bottom of the support frame assembly, the driving device I can provide an appropriate torque through the installation support of the support frame assembly. By setting that the driving device I is connected to the rotating device, the driving device I can control the rotating device to move along a specified path during operation. By setting that guide rails are arranged on both sides of the rotating device, through the cooperation between the slider and the guide rail, the rotating device is connected to the guide rail through the slider to prevent the rotating device from shifting, enabling the rotating device to move along the specified path. By setting that an imaging detection table is provided outside the rotating device, the imaging detection table, as an execution component, can perform quality inspection on the electrolyte of the lithium battery. By setting that the rotating device is connected to the imaging detection table through a coupling, the rotating device can control the imaging detection table to rotate around the axis of the coupling itself through the coupling to perform 360° imaging on the electrolyte; overcoming the problem that traditional equipment does not have a rotating detection function. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 is the three-dimensional structure of an embodiment of the present invention Figure Ⅰ ;

[0021] Figure 2is the three-dimensional structure of an embodiment of the present invention Figure Ⅱ ;

[0022] Figure 3 is the front view of the structure of an embodiment of the present invention;

[0023] Figure 4 is the right view of the structure of an embodiment of the present invention;

[0024] Figure 5 is the top view of the structure of an embodiment of the present invention;

[0025] Figure 6 is the view of the present invention with door panel Ⅳ removed;

[0026] Figure 7 is the view of the present invention with door panel Ⅰ removed;

[0027] In the figure: 1, support frame; 2, drive device Ⅰ; 3, rotating device; 4, guide rail; 5, slider; 6, contrast detection table; 7, coupling; 8, door panel; 9, reinforced support table; 10, guard plate;

[0028] 601, reinforcement plate; 602, connecting piece; 603, contrast agent machine; 604, transparent plate;

[0029] 801, door panel Ⅰ; 802, door panel Ⅱ; 803, door panel Ⅲ; 804, door panel Ⅳ; 805, groove opening. Detailed implementation manners

[0030] Embodiment 1

[0031] As Figures 1 to 6 shown, a lithium battery electrolyte detection device described in the present invention, wherein the lithium battery electrolyte detection device model is Model001, includes a support frame 1. The support frame 1 is in the shape of a rectangular cuboid. A drive device Ⅰ 2 is provided at the bottom of the support frame 1 assembly. The drive device Ⅰ 2 is connected to a rotating device 3. Guide rails 4 are arranged on both sides of the rotating device 3. The rotating device 3 is connected to the guide rails 4 through a slider 5. A contrast detection table 6 is provided outside the rotating device 3. The rotating device 3 is connected to the contrast detection table 6 through a coupling 7. The drive device Ⅰ 2 controls the up and down movement of the contrast detection table 6, and the rotating device 3 controls the rotation of the contrast detection table 6 along the axis.

[0032] By setting up the support frame 1, the support frame 1 can provide support and installation framework for the overall equipment. By setting the support frame 1 to be a vertical rectangular cuboid, the vertical cuboid conforms to the principle of human-machine design. By setting that the bottom of the support frame 1 assembly is provided with a driving device Ⅰ 2, the driving device Ⅰ 2 can provide appropriate torque through the installation support of the support frame 1 assembly. By setting that the driving device Ⅰ 2 is connected to the rotating device 3, the driving device Ⅰ 2 can control the rotating device 3 to move along a specified path during operation. By setting that guide rails 4 are arranged on both sides of the rotating device 3, through the cooperation between the slider 5 and the guide rail 4, the rotating device 3 is connected to the guide rail 4 through the slider 5 to prevent the rotating device 3 from shifting, so that the rotating device 3 can move along the specified path. By setting that a contrast detection table 6 is arranged outside the rotating device 3, the contrast detection table 6, as an execution component, can perform lesion inspection on the electrolyte in the lithium battery. By setting that the rotating device 3 is connected to the contrast detection table 6 through a coupling 7, the rotating device 3 can control the contrast detection table 6 to rotate around the axis of the coupling 7 itself through the coupling 7 to perform 360° contrast imaging on the electrolyte of the lithium battery. The overall equipment is divided into two stroke actions. First, the driving device Ⅰ 2 controls the up and down movement of the contrast detection table 6 to adapt to the height difference of different patients. The second movement stroke is the self-rotation contrast imaging of the contrast detection table 6 around the rotating device 3.

[0033] As Figure 1 shown, as an optimization, the contrast detection table 6 is in a gate shape. The corners of the contrast detection table 6 are reinforced by a reinforcing plate 601. A connecting piece 602 is arranged in the middle of the contrast detection table 6. The rotating device 3 is connected to the contrast detection table 6 through the connecting piece 602.

[0034] By setting the contrast detection table 6 to be in a gate shape, the corresponding position of the gate shape is the measurement standing position for the patient. By setting that the corners of the contrast detection table 6 are reinforced by a reinforcing plate 601, the overall strength can be improved and deformation caused during use can be avoided. By setting that a connecting piece 602 is arranged in the middle of the contrast detection table 6, the connecting piece 602 can serve as a connection transfer piece, and the rotating device 3 can drive the contrast detection table 6 through the connecting piece 602.

[0035] As an optimization, a contrast machine 603 is arranged on the top of the contrast detection table 6. Correspondingly, a transparent plate 604 is arranged on the bottom surface of the contrast detection table 6.

[0036] By setting that a contrast machine 603 is arranged on the top of the contrast detection table 6 and a transparent plate 604 is arranged on the bottom surface of the contrast detection table 6, the contrast machine 603 can detect the electrolyte in the lithium battery through the supporting transparent plate 604.

[0037] As Figure 2As shown in the figure, as an optimization, a door panel 8 is provided outside the support frame 1. The door panel 8 includes a door panel Ⅰ801, a door panel Ⅱ802, a door panel Ⅲ803, and a door panel Ⅳ804. The door panel Ⅳ804 is provided with a groove opening 805. The groove opening 805 is a vertical rectangle, and the shape of the groove opening 805 is conducive to the corresponding movement of the imaging detection table 6 in cooperation.

[0038] By providing a door panel 8 outside the support frame 1, the door panel 8 includes a door panel Ⅰ801, a door panel Ⅱ802, a door panel Ⅲ803, and a door panel Ⅳ804. The door panel Ⅳ804 is provided with a groove opening 805. The door panel Ⅰ801, the door panel Ⅱ802, the door panel Ⅲ803, and the door panel Ⅳ804 can be combined to seal the interior of the device, avoiding the leakage of parts during the use of the device and causing damage to the operator. By providing a groove opening 805 on the door panel Ⅳ804, the groove opening 805 is a vertical rectangle, and the groove opening 805 can accommodate the coupling 7, enabling the internal rotating device 3 to be connected to the external imaging detection table 6, and the door panel 8 will not cause interference during the up and down movement.

[0039] As an optimization, a reinforcing support platform 9 is provided at the bottom of the support frame 1, and the reinforcing support platform 9 is located at the bottom of the imaging detection table 6.

[0040] By providing a reinforcing support platform 9 at the bottom of the support frame 1, and the reinforcing support platform 9 is located at the bottom of the imaging detection table 6, the reinforcing support platform 9 can further support and reinforce the support frame 1 to ensure stability during use.

[0041] As Figure 2 shown in the figure, as an optimization, a guard plate 10 is provided to be adapted to the connecting member 602.

[0042] By providing a guard plate 10 adapted to the connecting member 602, it can prevent damage to personnel during use.

[0043] Working process or working principle:

[0044] Preparation work: Place the support frame 1 in the designated area. The model of the lithium battery electrolyte detection device is Model001. Power on the whole device, adjust the imaging detection table 6 according to the height of the patient. The driving device Ⅰ2 works to control the lifting of the rotating device 3. The rotating device 3 is connected to the guide rail 4 through the slider 5, enabling the rotating device 3 to move along the specified path to ensure the stability of the whole device. After reaching the designated position, enter the detection work. The rotating device 3 works, and the rotating device 3 can control the imaging detection table 6 to rotate around the coupling 7 through the coupling 7. The top imaging machine 603 and the bottom transparent plate 604 can perform 360° imaging detection on the electrolyte in the lithium battery.

[0045] In the present invention, the description of the direction and relative position relationship of the structure, such as the description of front, back, left, right, up and down, does not constitute a limitation to the present invention and is only for convenience of description.

Claims

1. A lithium battery electrolyte detection device, characterized in that, it includes a support frame (1). The support frame (1) is in the shape of a rectangular cuboid. A driving device I (2) is provided at the bottom of the support frame (1) assembly. The driving device I (2) is connected to a rotating device (3). Guide rails (4) are arranged on both sides of the rotating device (3). The rotating device (3) is connected to the guide rails (4) through sliders (5). A contrast detection table (6) is provided outside the rotating device (3). The rotating device (3) is connected to the contrast detection table (6) through a coupling (7). The driving device I (2) controls the up and down movement of the contrast detection table (6), and the rotating device (3) controls the rotation of the contrast detection table (6) along the axis.

2. The lithium battery electrolyte detection device according to claim 1, characterized in that, the contrast detection table (6) is in a gate shape. The corners of the contrast detection table (6) are reinforced by reinforcing plates (601). A connecting member (602) is provided in the middle of the contrast detection table (6). The rotating device (3) is connected to the contrast detection table (6) through the connecting member (602).

3. The lithium battery electrolyte detection device according to claim 2, characterized in that, a contrast machine (603) is provided on the top of the contrast detection table (6). Correspondingly, a transparent plate (604) is provided on the bottom surface of the contrast detection table (6).

4. The lithium battery electrolyte detection device according to claim 3, characterized in that, a door panel (8) is provided outside the support frame (1). The door panel (8) includes a door panel I (801), a door panel II (802), a door panel III (803) and a door panel IV (804). A groove opening (805) is provided on the door panel IV (804). The groove opening (805) is in a vertical rectangular shape, and the shape of the groove opening (805) is conducive to the corresponding movement of the contrast detection table (6).

5. The lithium battery electrolyte detection device according to any one of claims 1-4, characterized in that, a reinforcing support platform (9) is provided at the bottom of the support frame (1). The reinforcing support platform (9) is located at the bottom of the contrast detection table (6).

6. The lithium battery electrolyte detection device according to claim 5, characterized in that, a protective plate (10) is provided to be adapted to the connecting member (602).

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