Multi-point touch typing floating probe device for lead-acid storage battery
By using a multi-point blind-firing floating probe device, the problem of current strike failure caused by dust and displacement during lead-acid battery recycling has been solved, achieving high stability and high compatibility, and adapting to current detection of different battery types.
Patent Information
- Application Number
- CN202423082714.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-13
- Publication Date
- 2025-11-28
- Estimated Expiration
- 2034-12-13
AI Technical Summary
In the current lead-acid battery recycling process, the dual-electrode probe has a high failure rate due to current surges caused by dust and displacement, and cannot be effectively compatible with different battery types.
A multi-point blind-firing floating probe device is adopted, which uses cross-arranged electrode probe groups and self-lubricating guide sleeves to achieve floating guidance of the probe, ensuring that the probe can cover the battery electrode area and adapt to uneven surfaces. A servo motor drives a synchronous belt to adjust the probe spacing.
It improves the success rate of current strikes, has high stability, adapts to different battery types, and reduces the failure rate caused by visual inaccuracies and displacement.
Smart Images

Figure CN223611673U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to the technical field of lead -acid battery recovery, concretely to lead -acid battery multipoint blind call floating probe device. BACKGROUND
[0002] The existing lead -acid battery recovery charge -discharge probe adopts double electrode to hit current, for many kinds of lead -acid batteries, requires to reach good compatibility, generally adopts to move double electrode spacing to be compatible with different batteries, but due to the external factor that the surface dust of recycled lead -acid battery is larger, the vision in the front end of production line can appear the situation that the photograph is not successful or the displacement is generated in the process that the battery flows in the production line and other various conditions, the double electrode cannot hit current accurately, thereby leading to higher failure rate. UTILITARY MODEL
[0003] The utility model aims at providing a kind of lead -acid battery multipoint blind call floating probe device, solve the problem raised in the above background technology.
[0004] TECHNICAL SCHEME
[0005] To achieve the above object, the utility model is realized by the following technical scheme: a kind of lead -acid battery multipoint blind call floating probe device, including pressure gauge, mechanical hand rotary flange, servo motor, synchronous belt, mounting bracket, phenolic resin plate, spring, guide rail, ball screw, electrode probe group one, electrode probe group two, electrode probe group three and electrode probe group four.
[0006] Further, the electrode probe group one, electrode probe group two, electrode probe group three, electrode probe group four, each probe group is formed by six probes, and the probe is beryllium copper gilding process, ball screw is centering screw rod, probe mounting seat plate is phenolic resin plate.
[0007] Further, the probe group is spring floating design, the positive and negative poles of electrode probe group one, electrode probe group two, electrode probe group three, electrode probe group four are cross arrangement.
[0008] Further, the probe group each probe uses self-lubricating guide sleeve to realize floating guide.
[0009] Further, the six probes in the electrode probe group one are connected to the same group of electricity, the six probes in the electrode probe group two are connected to the same group of electricity, the six probes in the electrode probe group three are connected to the same group of electricity, and the six probes in the electrode probe group four are connected to the same group of electricity.
[0010] The utility model provides a kind of lead -acid battery multipoint blind call floating probe device. It has the following beneficial effects:
[0011] The lead-acid battery multi-point blind floating probe device adopts the form of multi-point blind floating and moving cross positive and negative electrodes, can realize the current failure caused by various problems of inaccurate visual shooting and inaccurate positioning at the front end of the production line, adopts multi-point coverage of battery electrodes, and can successfully hit the current as long as the approximate position of the battery is shot by the visual shooting without hitting the accurate pole point, has high stability, solves the problem that the existing lead-acid battery recycling charging and discharging probe adopts double electrodes to hit the current, for many types of lead-acid batteries, good compatibility is required, generally, the double electrode spacing is moved to compatible different batteries, but due to the large dust on the surface of the recycled lead-acid battery, the visual shooting at the front end of the production line may fail or the battery may be displaced during the production line flow, and the double electrodes cannot accurately hit the current, thereby causing a high failure rate. BRIEF DESCRIPTION OF DRAWINGS
[0012] Figure 1 It is a structural schematic diagram of the utility model;
[0013] Figure 2 It is a schematic diagram of A;
[0014] Figure 3 It is a lead-acid battery electrode state A;
[0015] Figure 4 It is a lead-acid battery electrode state B;
[0016] Figure 5 It is a lead-acid battery electrode state C;
[0017] Figure 6 It is a lead-acid battery electrode state D.
[0018] Among them, 1 pressure gauge, 2 mechanical hand rotating flange, 3 servo motor, 4 synchronous belt, 5 installation support, 6 phenolic resin plate, 7 spring, 8 guide rail, 9 ball screw, 10 electrode probe group one, 11 electrode probe group two, 12 electrode probe group three, 13 electrode probe group four. DETAILED DESCRIPTION
[0019] As Figures 1-6 shown, the utility model discloses a lead-acid battery multi-point blind floating probe device, including pressure gauge (1), mechanical hand rotating flange (2), servo motor (3), synchronous belt (4), installation support (5), phenolic resin plate (6), spring (7), guide rail (8), ball screw (9), electrode probe group one (10), electrode probe group two (11), electrode probe group three (12) and electrode probe group four (13).
[0020] Embodiment one, the probe device of the utility model is applied to old battery recycling production line, and the positive and negative pole points of lead-acid battery are contacted by the probe downward pressing, which is used for testing the dynamic voltage of lead-acid battery, servo motor 2 rotates and drives synchronous belt 4 to drive ball screw 9, the interval of electrode probe group one 10, electrode probe group three 12 and electrode probe group two 11, electrode probe group four 13 is adjusted, guide rail 8 is used as moving guide, electrode probe group one 10 and electrode probe group four 13 are set as same polarity, electrode probe group two 11 and electrode probe group three 12 are set as same polarity, start downward pressing probe group to the electrode of lead-acid battery, electrode probe group one 10, electrode probe group two 11 are respectively pressed on the electrode of battery group Figure 3 As shown in the figure, spring 7 can be floatingly installed on phenolic resin plate 6, and the single probe of probe group is freely single floating, so as to adapt to various uneven surface states of battery, each probe group is composed of six probes, can cover the whole electrode area of lead-acid battery, thereby eliminating the error caused by inaccurate visual shooting to cause the failure of current striking and voltage detection.
[0021] Embodiment two, servo motor 2 rotates and drives synchronous belt 4 to drive ball screw 9, the interval of electrode probe group one 10, electrode probe group three 12 and electrode probe group two 11, electrode probe group four 13 is adjusted, guide rail 8 is used as moving guide, electrode probe group one 10 and electrode probe group four 13 are set as same polarity, electrode probe group two 11 and electrode probe group three 12 are set as same polarity, start downward pressing probe group to the electrode of lead-acid battery, electrode probe group 12, 13 are respectively pressed on the electrode of battery group Figure 4 As shown in the figure.
[0022] Embodiment three, servo motor 2 rotates and drives synchronous belt 4 to drive ball screw 9, the interval of electrode probe group one 10, electrode probe group three 12 and electrode probe group two 11, electrode probe group four 13 is adjusted, guide rail 8 is used as moving guide, electrode probe group one 10 and electrode probe group four 13 are set as same polarity, electrode probe group two 11 and electrode probe group three 12 are set as same polarity, start downward pressing probe group to the electrode of lead-acid battery, electrode probe group one 10, electrode probe group three 12 are respectively pressed on the electrode of battery group Figure 5 As shown in the figure.
[0023] Embodiment four, servo motor 2 rotates and drives synchronous belt 4 to drive ball screw 9, the interval of electrode probe group one 10, electrode probe group three 12 and electrode probe group two 11, electrode probe group four 13 is adjusted, guide rail 8 is used as moving guide, electrode probe group one 10 and electrode probe group four 13 are set as same polarity, electrode probe group two 11 and electrode probe group three 12 are set as same polarity, start downward pressing probe group to the electrode of lead-acid battery, electrode probe group two 11, electrode probe group four 13 are respectively pressed on the electrode of battery group Figure 6 As shown in the figure.
Claims
1. A lead-acid battery multipoint touch-typing floating probe device, characterized by: It includes pressure gauge (1), mechanical hand rotating flange (2), servo motor (3), synchronous belt (4), mounting bracket (5), phenolic resin plate (6), spring (7), guide rail (8), ball screw (9), electrode probe group one (10), electrode probe group two (11), electrode probe group three (12) and electrode probe group four (13).
2. A floating probe device for a lead-acid battery, according to claim 1, characterized in that: The electrode probe group one (10), electrode probe group two (11), electrode probe group three (12) and electrode probe group four (13) each consist of six probes, and the probes are made of beryllium copper with gold plating process, the ball screw (9) is a centering screw, and the probe mounting seat plate is a phenolic resin plate (6).
3. A floating probe device for a lead-acid battery, according to claim 1, characterized in that: The probe groups are all designed with spring floating, and the positive and negative electrodes of the electrode probe group one (10), electrode probe group two (11), electrode probe group three (12) and electrode probe group four (13) are cross arranged.
4. A floating probe device for a lead-acid battery, according to claim 1, characterized in that: Each probe of the probe groups uses self-lubricating guide sleeve to realize floating guidance.
5. A floating probe device for a lead-acid battery, according to claim 1, wherein: The six probes in the electrode probe group one (10) are connected to the same group of electricity, the six probes in the electrode probe group two (11) are connected to the same group of electricity, the six probes in the electrode probe group three (12) are connected to the same group of electricity, and the six probes in the electrode probe group four (13) are connected to the same group of electricity.