Formed foil feed trough simulation experiment device

Abstract

The utility model discloses a formed foil feed trough simulation experiment device which comprises a pot body, an annular supporting frame is arranged in the pot body and is of a hollow structure, a limiting mechanism is arranged on the outer wall of the annular supporting frame, and the outer wall of the annular supporting frame is in limiting fit with the inner wall of the pot body through the limiting mechanism. A plurality of mounting ports are formed in the top of the annular support frame by the hollow structure, two electrode plates which are oppositely arranged are embedded in the annular support frame, the two sides of the top of each electrode plate are embedded and connected in the corresponding mounting ports, and the electrode plates are electrically connected through a connecting mechanism and are used for simulating formed foil feed in a laboratory. Short circuit caused by contact between the electrode plate and the pot body is avoided, stability and safety of the experiment process are guaranteed, and current uniformity is improved.

Description

TECHNICAL FIELD

[0001] The utility model relates to the technical field of formation foil process laboratory simulation device, especially simulate formation foil feeding tank experimental device. BACKGROUND

[0002] The existing laboratory simulates formation foil feeding, usually places electrode plate in the electrolyte pot body with high conductivity, the electrode plate does not contact the pot body, the electrode plate is connected with the positive pole of high voltage power supply, the pot body is connected with the negative pole of high voltage power supply, and the formation foil sample is placed into the electrolyte close to the electrode plate to simulate the experiment, and the experimental device has the following problems:

[0003] 1, the electrode plate is easy to fall and contact the pot body in the experimental process, at this time, the positive and negative poles are directly connected, a short circuit is formed, and safety accidents are prone to occur;

[0004] 2, the electrode plate is easy to move in the experimental process, and a short circuit is also easy to be caused by contacting the pot body;

[0005] 3, a single electrode plate is usually used in the experimental process, so that the uniformity and stability of current in the electrolyte are both poor. UTILITY MODEL CONTENTS

[0006] The utility model provides simulation formation foil feeding tank experimental device, aims at solving the problem that the electrode plate is easy to contact the pot body and cause short circuit in the above feeding simulation experiment and the problem that the uniformity and stability of current in the electrolyte are both poor due to the use of single electrode plate.

[0007] To solve the above technical problem, the technical scheme adopted by the utility model is:

[0008] The simulation formation foil feeding tank experimental device includes a pot body, the pot body is provided with an annular support frame, the annular support frame is a hollow structure, the outer wall of the annular support frame is provided with a limiting mechanism, and the outer wall of the annular support frame forms a limiting cooperation with the inner wall of the pot body through the limiting mechanism, the hollow structure forms a plurality of mounting ports at the top of the annular support frame, the annular support frame is embedded with two oppositely arranged electrode plates, and the top sides of the electrode plates are embedded in the corresponding mounting ports, and the electrode plates are electrically connected through a connecting mechanism.

[0009] As preferred, the pot body is filled with electrolyte, the pot body does not contact the electrode plate, and the annular support frame and the limiting mechanism are both insulating materials.

[0010] As more preferred, the mounting port is higher than the top of the pot body.

[0011] Further, the annular support frame and the pot body are concentric and coaxial, and the limiting mechanism and the annular support frame are concentric and coaxial.

[0012] Further, the limiting mechanism comprises a plurality of limiting columns arranged at intervals around the outer wall of the annular support frame, the limiting columns are arranged in the radial direction, and the limiting columns are provided with limiting balls at the ends thereof, and the limiting balls are inscribed in the inner wall of the pot body.

[0013] Specifically, the limiting columns are at least three.

[0014] Specifically, the two electrode plates are symmetrically arranged with respect to the middle position of the annular support frame, and the electrode plates are vertically arranged.

[0015] More specifically, the electrode plates are T-shaped structures, the horizontal parts are arranged along the chord direction of the annular support frame, and the horizontal parts are embedded and received in the corresponding mounting ports, the vertical parts are embedded in the annular support frame, and the horizontal parts are electrically connected through the connecting mechanism.

[0016] In detail, the connecting mechanism comprises a conductive sheet, one end of the conductive sheet is clamped and matched with the horizontal part of one of the electrode plates through a conductive clamp, and the other end of the conductive sheet is clamped and matched with the horizontal part of the other electrode plate through another conductive clamp.

[0017] The utility model discloses the beneficial effects of:

[0018] The utility model discloses the electrode plate is erected through the annular support frame, and makes the electrode plate and the pot body always separate, avoids short circuit;

[0019] Meanwhile, the annular support frame is further stabilized through the limiting mechanism, and the two ends of the motor plate are also limited through the mounting ports, so that the stability of the electrode plate in the experimental process is ensured, and short circuit is avoided.

[0020] Secondly, the device is provided with opposite electrode plates, and the electrode plates are electrically connected through the connecting mechanism, so that the current between the electrode plates is uniform and stable, and the effect of the experiment is ensured. DRAWINGS

[0021] Figure 1 It is the three-dimensional schematic view of the utility model;

[0022] Figure 2 It is the top view schematic view of the utility model;

[0023] Figure 3 It is the three-dimensional schematic view of the electrode plate installed on the annular support frame of the utility model;

[0024] Figure 4 It is the three-dimensional schematic view of the connecting mechanism installed on the electrode plate of the utility model;

[0025] Figure 5 It is the three-dimensional schematic view of the annular support frame and the limiting mechanism of the utility model;

[0026] In the figure: 1, the pot body; 2, annular support frame; 3, mounting port; 4, electrode plate;

[0027] 5, connecting mechanism; 51, conductive clamp; 52, conductive sheet;

[0028] 6, limiting mechanism; 61, limiting column; 62, limiting ball. DETAILED DESCRIPTION

[0029] The embodiment is further described as follows with reference to the accompanying drawings.

[0030] As shown in Figures 1-5 , as a preferred embodiment 1, the simulation of the foil forming tank experimental device, including the pot body 1, the pot body 1 is provided with annular support frame 2, the annular support frame 2 is hollow structure, ensure the strength of fixed, at the same time, facilitate the flow of electrolyte, the outer wall of annular support frame 2 is provided with limiting mechanism 6, and the outer wall of annular support frame 2 is limited by limiting mechanism 6 and the inner wall of pot body 1 to form limiting cooperation, ensure the stability of annular support frame 2 during experiment, the hollow structure forms several mounting ports 3 at the top of annular support frame 2, the annular support frame 2 is embedded with two oppositely arranged electrode plates 4, and the top of the electrode plate 4 is embedded in the corresponding mounting port 3, the electrode plate 4 is limited to a certain extent, ensure the stability during experiment, the electrode plate 4 is connected by connecting mechanism 5 to form electrical connection, between the electrode plate 4, form stable and uniform current, when using, the sample of the foil is put into the electrolyte between the two electrode plates 4.

[0031] The pot body 1 is filled with electrolyte to ensure the experiment, the pot body 1 and the electrode plate 4 are not in contact, the annular support frame 2 and the limiting mechanism 6 are both insulating materials to avoid short circuit.

[0032] The mounting port 3 is higher than the top of the pot body 1, to avoid the top of the electrode plate 4 and the top of the pot body 1 contact.

[0033] The annular support frame 2 and the pot body 1 are concentric and coaxial, the limiting mechanism 6 and the annular support frame 2 are concentric and coaxial.

[0034] The limiting mechanism 6 includes several limiting columns 61 arranged at equal intervals around the outer wall of the annular support frame 2, the limiting columns 61 are arranged along the radial direction, the limiting columns 61 are provided with limiting balls 62 at the end, the limiting balls 62 are all inscribed in the inner wall of the pot body 1, to ensure the stability of the annular support frame 2, and also avoid the electrode plate 4 and the pot body 1 contact to form short circuit.

[0035] The limiting column 61 is at least three, to ensure stability.

[0036] The two electrode plates 4 are symmetrically arranged about the middle position of the annular support frame 2, and the electrode plates 4 are vertically arranged.

[0037] The electrode plate 4 is T-shaped structure, the horizontal part is arranged along the chord direction of the annular support frame 2, and the horizontal part is embedded and received in the corresponding installation port 3, the limiting installation is guaranteed, the vertical part is embedded in the annular support frame 2, the horizontal part is electrically connected through the connecting mechanism 5, and stable and uniform current is formed between the vertical parts of the electrode plate 4.

[0038] As preferred, the electrode plate 4 can be selected from titanium plate.

[0039] The connecting mechanism 5 comprises a conductive sheet 52, one end of the conductive sheet 52 is clamped and matched with the horizontal part of one of the electrode plates 4 through a conductive clamp 51, the other end of the conductive sheet 52 is clamped and matched with the horizontal part of the other electrode plate 4 through the other conductive clamp 51, and the two electrode plates 4 are guaranteed to be electrified.

[0040] The working principle of the utility model is as follows:

[0041] The utility model provides a kind of simulation foilization feed tank experimental device, electrode plate 4 is erected by annular support frame 2, and make electrode plate 4 and pot body 1 always separate, avoid short circuit;

[0042] Meanwhile, the annular support frame 2 is further stabilized by the limiting mechanism 6, and the two ends of the motor plate 4 are also limited by the installation port 3, to ensure the stability of the electrode plate 4 during the experiment, and to avoid short circuit.

[0043] Secondly, the device is provided with opposite electrode plates 4, and the electrode plates 4 are electrically connected through the connecting mechanism 5, so that the current between the electrode plates 4 is uniform and stable, and the effect of the experiment is guaranteed.

Claims

1. A simulated foil-fed slot experiment device, characterized by, The utility model provides a kind of electrolytic tank, including pot (1), annular support frame (2) is equipped in the pot (1), the annular support frame (2) is hollow structure, the outer wall of annular support frame (2) is equipped with limiting mechanism (6), and the outer wall of annular support frame (2) is limited with the inner wall of pot (1) by limiting mechanism (6) Cooperation, hollow structure forms several installation ports (3) in the top of annular support frame (2), the annular support frame (2) is inlaid with two oppositely arranged electrode plates (4), and the top two sides of electrode plate (4) are inlaid and received in corresponding installation port (3), and the electrode plate (4) is electrically connected by connecting mechanism (5) between the electrode plate (4).

2. The simulated in-line foil-fed slot experiment apparatus of claim 1, wherein, The pot (1) is filled with electrolyte, and the pot (1) is not in contact with the electrode plate (4), and the annular support frame (2) and the limiting mechanism (6) are both made of insulating material.

3. The simulated, chemical-foamed, foil-fed, slot experiment apparatus of claim 2, wherein, The installation port (3) is higher than the top of the pot (1).

4. The simulated in-line foil-fed slot experiment apparatus of claim 3, wherein, The annular support frame (2) is concentric and coaxial with the pot (1), and the limiting mechanism (6) is concentric and coaxial with the annular support frame (2).

5. The simulated in-line foil-fed slot experiment apparatus of claim 4, wherein, The limiting mechanism (6) includes a plurality of limiting columns (61) arranged at equal intervals around the outer wall of the annular support frame (2), the limiting columns (61) are arranged in the radial direction, the limiting columns (61) are provided with limiting balls (62) at the ends, and the limiting balls (62) are inscribed in the inner wall of the pot (1).

6. The simulated in-line foil-fed slot experiment apparatus of claim 5, wherein, The limiting column (61) is at least three.

7. The simulated in-line foil-fed slot experiment apparatus of claim 5, wherein, The two electrode plates (4) are symmetrically arranged about the middle position of the annular support frame (2) with a certain distance, and the electrode plates (4) are vertically arranged.

8. The simulated in-line foil-fed slot experiment apparatus of claim 7, wherein, The electrode plate (4) is a T-shaped structure, the horizontal part is arranged along the chord direction of the annular support frame (2), and the horizontal part is inlaid and received in the corresponding installation port (3), the vertical part is inlaid in the annular support frame (2), and the horizontal part is electrically connected by the connecting mechanism (5).

9. The simulated in-line foil-fed slot experiment apparatus of claim 8, wherein, The connecting mechanism (5) includes a conductive sheet (52), one end of the conductive sheet (52) is clamped and matched with the horizontal part of one of the electrode plates (4) through a conductive clamp (51), and the other end of the conductive sheet (52) is clamped and matched with the horizontal part of the other electrode plate (4) through another conductive clamp (51).

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