Side insertion type single-chip microcomputer turnover box and chip mounting table based on turnover box
Through the design of the side-plugged microcontroller turnover box and chip assembly table, the problem of inadequate insertion and storage of the microcontroller is solved, and an efficient chip assembly process is achieved, avoiding damage and enhancing the support strength.
Patent Information
- Application Number
- CN202421757910.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-07-23
- Publication Date
- 2025-07-04
- Estimated Expiration
- 2034-07-23
AI Technical Summary
The slot design of the existing microcontroller turnover box causes the microcontroller to be inserted and placed in place, which is prone to sudden drop and damage during operation.
A side-plugged microcontroller turnover box and chip assembly table is designed to insert the slot through lateral pushing, and automatically guide the guide channel and the chip port to avoid the problem of inadequate insertion and placement.
The chip installation efficiency of the microcontroller is improved, damage caused by inadequate insertion and placement is avoided, and the support strength of the turnover box is enhanced.
Smart Images
Figure CN223059497U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of single-chip microcomputer processing, and particularly relates to a side-insert type single-chip microcomputer turnover box and a wafer mounting table based on the turnover box. Background Technique
[0002] Single-chip microcomputer technology is an integrated circuit chip, also known as a single-chip microcontroller. It belongs to an integrated circuit chip. By using ultra-large scale integrated circuit technology, a central processing unit (CPU) with data processing capabilities, a read-only memory (ROM), a random access memory (RAM), etc. are integrated together to form a small and complete microcomputer system. The single-chip microcomputer has a small volume, light weight, and low price, which provides convenient conditions for application and development.
[0003] During the processing of single-chip microcomputers, turnover boxes are needed for temporary storage. Due to the slot design of existing turnover boxes, single-chip microcomputers can only be inserted into the slots vertically. When designing the slots, in order to ensure that the single-chip microcomputer can remain stable in the slot after being inserted, the width of the slot is often matched according to the thickness of the single-chip microcomputer. This not only increases the slotting difficulty, but also easily causes the situation that the single-chip microcomputer is not inserted in place and the lower end is suspended. If the single-chip microcomputer is not inserted properly, it is very easy to suddenly fall and cause damage to the single-chip microcomputer during the operation of the turnover box. Content of the Utility Model
[0004] In order to solve the technical problems existing in the background technique, the utility model provides a side-insert type single-chip microcomputer turnover box and a wafer mounting table based on the turnover box.
[0005] A side-insert type single-chip microcomputer turnover box provided by the utility model includes: a box body and a side cover, wherein:
[0006] The box body includes a bottom plate with a rectangular structure, a first end plate and a second end plate respectively fixed at both ends of the bottom plate, a side plate fixed on one side of the bottom plate and connecting the first end plate and the second end plate, and a plurality of spacer plates. The spacer plates are perpendicular to the side plate, and all the spacer plates are fixed on the bottom plate and are arranged at intervals along the connection direction of the first end plate and the second end plate to form slots;
[0007] The side cover is arranged opposite to the side plate and is detachably connected to the first end plate and the second end plate.
[0008] Preferably, on one side of the bottom plate away from the side plate, there are extension edges extending away from the side plate, and insertion slots are provided on the extension edges; at the lower end of the side cover, there is an insertion portion matching the insertion slot, and the side cover is provided with a first longitudinal slot and a second longitudinal slot perpendicular to the side where the insertion portion is located, and one ends of the first longitudinal slot and the second longitudinal slot close to the insertion portion are through ends; the insertion portion at the lower end of the side plate is located in the insertion slot, and one sides of the first end plate and the second end plate away from the side plate are respectively located in the first longitudinal slot and the second longitudinal slot.
[0009] Preferably, at both ends of the side cover, there are a first baffle and a second baffle respectively. The first baffle is attached to one side of the first end plate away from the second end plate, and they are connected by a magnetic component therebetween; the second baffle is attached to one side of the second end plate away from the first end plate, and they are connected by a magnetic component therebetween.
[0010] A loading platform for a side - inserted single - chip microcomputer turnover box proposed by the present utility model includes: a placement platform and an insertion platform, where:
[0011] On the placement platform, there is a guiding channel for the box body to pass through, and the guiding channel is a linear channel with both ends through.
[0012] The insertion platform is fixed on one side of the guiding channel. The insertion platform is provided with an insertion opening arranged along the width direction of the guiding channel, and the top of the insertion opening is open. One end of the insertion opening close to the guiding channel is communicated with the guiding channel, and the width of the insertion opening in the extending direction of the guiding channel increases successively from the end close to the guiding channel to the end away from the guiding channel.
[0013] Preferably, there are multiple insertion openings, which are arranged in sequence along the extending direction of the guiding channel, and the distance between adjacent insertion openings is a multiple of the width of the insertion slot.
[0014] Preferably, on the side wall of the guiding channel, there are accommodation grooves and positioning components movably installed at one end of the accommodation grooves and rotatable towards the other end of the accommodation grooves. And when one end of the box body contacts the positioning component, all the insertion openings are respectively docked with the corresponding insertion slots in the box body.
[0015] Preferably, the positioning component includes a positioning rod, a pin shaft and a torsion spring. One end of the positioning rod is movably installed in the positioning groove through the pin shaft; the torsion spring is installed on the pin shaft, and the support rods at both ends of the torsion spring are located on one side of the positioning rod and respectively abut against the bottom of the positioning groove and the side wall of the positioning rod.
[0016] Preferably, there are multiple positioning components, and each positioning component has a matching accommodation groove at its location, and the width between adjacent positioning components matches the width of the insertion slot.
[0017] A side-insert type single-chip microcomputer turnover box proposed by the present utility model can open the side cover during chip loading so that the single-chip microcomputer can be directly pushed laterally into the slot. The lateral pushing method can avoid the problem that the single-chip microcomputer suddenly drops and is damaged during turnover due to the failure of vertical chip insertion in place.
[0018] Meanwhile, a chip loading platform based on the side-insert type single-chip microcomputer turnover box proposed by the present utility model, when loading chips into the turnover box, first place the turnover box in the guiding channel and align the first slot in the queue with the chip insertion port. The chip loading personnel insert the single-chip microcomputers into each slot in turn through the chip insertion port. Since the width of the chip insertion port in the extending direction of the guiding channel increases successively from one end close to the guiding channel to the end far from the guiding channel, there is no need to align during chip loading. Just ensure that the single-chip microcomputer is directly inserted into the chip insertion port facing backward, so that it can be automatically aligned by the chip insertion port and finally pushed into the slot by the chip insertion port. Therefore, with the help of this chip loading platform, the chip loading efficiency of the single-chip microcomputer can be effectively improved. BRIEF DESCRIPTION OF THE DRAWINGS
[0019] Figure 1 is a schematic structural diagram of a side-insert type single-chip microcomputer turnover box proposed by the present utility model;
[0020] Figure 2 is a schematic structural diagram of a chip loading platform based on the side-insert type single-chip microcomputer turnover box proposed by the present utility model;
[0021] Figure 3 is a schematic diagram of the working principle of a chip loading platform based on the side-insert type single-chip microcomputer turnover box proposed by the present utility model. DETAILED DESCRIPTION OF THE EMBODIMENTS
[0022] Referring to Figure 1 , a side-insert type single-chip microcomputer turnover box proposed by the present utility model includes: a box body 1 and a side cover 2, wherein:
[0023] The box body 1 includes a bottom plate with a rectangular structure, a first end plate and a second end plate respectively fixed at both ends of the bottom plate, a side plate fixed on one side of the bottom plate and connecting the first end plate and the second end plate, and a plurality of spacer plates. The spacer plates are perpendicular to the side plate, and all the spacer plates are fixed on the bottom plate and are arranged at intervals along the connection direction of the first end plate and the second end plate to form slots 11 between any two adjacent spacer plates, and between the spacer plate and the first end plate / second end plate.
[0024] The side cover 2 is disposed opposite to the side plate and is detachably connected to the first end plate and the second end plate.
[0025] During chip loading, open the side cover 2, and directly push the single-chip microcomputer laterally into the slot 11 from one end of the slot 11. After all the slots 11 are filled with single-chip microcomputers, then cover the side cover 2.
[0026] This lateral pushing method, compared with the vertical insertion method, avoids the problem that the single-chip microcomputer suddenly drops and is damaged during turnover due to the incomplete vertical insertion.
[0027] In addition, in this embodiment, both sides of the bottom plate away from the side plate have extension edges extending away from the side plate, and insertion slots 12 are provided on the extension edges; the lower end of the side cover 2 is provided with an insertion portion matching the insertion slot 12, and the side cover 2 is provided with a first longitudinal slot b1 and a second longitudinal slot b2 perpendicular to the side where the insertion portion is located, and one ends of the first longitudinal slot b1 and the second longitudinal slot b2 close to the insertion portion are through ends; the insertion portion at the lower end of the side plate is located in the insertion slot 12, and the sides of the first end plate and the second end plate away from the side plate are respectively located in the first longitudinal slot b1 and the second longitudinal slot b2. When opening the side cover 2, only need to lift the side cover 2 and pull it out of the insertion slot 12, and make the first end plate and the second end plate disengage from the first longitudinal slot b1 and the second longitudinal slot b2. When it is necessary to cover the side plate, then insert the side cover 2 vertically downward so that the insertion portion at its lower end is inserted into the insertion slot 12, and the first end plate and the second end plate are respectively located in the first longitudinal slot b1 and the second longitudinal slot b2.
[0028] Furthermore, first baffles 21 and second baffles 22 are respectively provided at both ends of the side cover 2. The first baffle 21 is attached to the side of the first end plate away from the second end plate, and the two are connected by a magnetic attraction component; the second baffle 22 is attached to the side of the second end plate away from the first end plate, and the two are connected by a magnetic attraction component. The first baffle 21 and the second baffle 22 are used to form protections at both ends of the side cover 2 on the box body 1, so that the support strength of the turnover box can be effectively enhanced.
[0029] Specifically: The magnetic attraction component includes magnetizable blocks A and B that can be mutually attracted, and the magnetizable blocks A and B are respectively installed on the end plates including the first end plate, the second end plate and the baffles including the first baffle 21 and the second baffle 22.
[0030] Refer to Figure 2 , a loading platform for a side-inserted single-chip microcomputer turnover box proposed by the present utility model includes: a placement table 3 and an insertion table 4, where:
[0031] A guiding channel 31 for the box body 1 to pass through is provided on the placement table 3, and the guiding channel 31 is a linear channel that is through at both ends. The insertion table 4 is fixed on one side of the guiding channel 31. The insertion table 4 is provided with an insertion opening 41 arranged along the width direction of the guiding channel 31, and the top of the insertion opening 41 is open. One end of the insertion opening 41 close to the guiding channel 31 is communicated with the guiding channel 31, and the width of the insertion opening 41 in the extending direction of the guiding channel 31 gradually increases from the end close to the guiding channel 31 to the end away from the guiding channel 31.
[0032] Refer to Figure 3, when loading the chips, first open the side cover 2 of the turnover box, place the box body 1 in the guiding channel 31, and limit it in the width direction of the box body 1 by using the guiding channel 31. At the same time, ensure that the first slot 11 in the box body 1 is docked with the chip insertion port 41, and the chip loading personnel push the single-chip microcomputer into the slot 11 through the chip insertion port 41.
[0033] Since the width of the chip insertion port 41 in the extending direction of the guiding channel 31 increases successively from one end close to the guiding channel 31 to the other end far from the guiding channel 31, during chip loading, alignment is not required. Just ensure that the single-chip microcomputer is directly inserted into the chip insertion port 41 facing backward, and it can be automatically aligned and accurately inserted into the slot 11 when passing through the chip insertion port 41.
[0034] In addition, in this embodiment, there are multiple chip insertion ports 41, which are arranged successively along the extending direction of the guiding channel 31. Since the width of the large-mouth end of the chip insertion port 41 is much larger than the width of the slot 11, it is impossible to ensure that each chip insertion port 41 can be correspondingly docked with the slot 11 of the box body 1 one by one. Therefore, in this embodiment, the distance between each chip insertion port 41 is set to be a multiple of the width of the slot 11, so that when any one chip insertion port 41 is docked with one of the slots 11, the remaining chip insertion ports 41 respectively cross N slots 11 in sequence and are docked with the corresponding slots 11. As Figure 2 shown, when the first chip insertion port 41 is docked with the first slot 11, the second chip insertion port 41 is docked with the fourth slot 11, the third chip insertion port 41 is docked with the seventh slot 11... and so on. All chip insertion ports 41 respectively cross 2 slots 11 and are docked with the corresponding slots 11.
[0035] Furthermore, a receiving groove c is provided on the side wall of the guiding channel 31, and a positioning member 5 is movably installed at one end of the receiving groove c and can rotate towards the other end of the receiving groove c. When one end of the box body 1 contacts the positioning member 5, all chip insertion ports 41 are respectively docked with the corresponding slots 11 in the box body 1. As Figure 2 shown, when one end of the box body 1 contacts the positioning member 5, when the first chip insertion port 41 is docked with the first slot 11, the second chip insertion port 41 is docked with the fourth slot 11, the third chip insertion port 41 is docked with the seventh slot 11... and so on. All chip insertion ports 41 respectively cross 2 slots 11 and are docked with the corresponding slots 11.
[0036] When the box body 1 moves forward, the front end of the box body 1 pushes the positioning member 5 to flip inward into the receiving groove c until it is completely turned into the receiving groove c, so that the box body 1 can continue to move forward over the guiding member.
[0037] Specifically, the positioning component 5 in this embodiment includes a positioning rod, a pin shaft, and a torsion spring. One end of the positioning rod is movably installed in the positioning groove through the pin shaft; the torsion spring is installed on the pin shaft, and the support rods at both ends of the torsion spring are located on one side of the positioning rod and are respectively abutted against the bottom of the positioning groove and the side wall of the positioning rod. When the box body 1 moves forward, it pushes the positioning rod to turn inward towards the receiving groove c until it completely enters the receiving groove c.
[0038] Furthermore, there are multiple positioning components 5 in this embodiment, and each positioning component 5 has a matching receiving groove c at its location. The width between two adjacent positioning components 5 matches the width of the slot 11, so that when the box body 1 passes over the first positioning component 5 and abuts against the second positioning component 5, the slot 11 on the box body 1 moves forward uniformly by one position, so that the originally empty slot 11 enters the docking state with the insertion port 41, that is, the slot 11 that was originally ranked second and not docked with the insertion port 41 enters the docking state with the insertion port 41.
[0039] As can be seen from the above, for a side-insert type single-chip microcomputer turnover box proposed by the present utility model, when loading the chips, the side cover 2 can be opened so that the single-chip microcomputer can be directly pushed laterally into the slot 11. The lateral pushing method can avoid damage caused by the sudden drop of the single-chip microcomputer during turnover due to the incomplete vertical insertion of the chip.
[0040] At the same time, for a chip loading platform based on a side-insert type single-chip microcomputer turnover box proposed by the present utility model, when loading the chips into the turnover box, first place the turnover box in the guiding channel 31 and make the slot 11 ranked first dock with the insertion port 41. The chip loader inserts the single-chip microcomputers into each slot 11 in sequence through the insertion port 41. Since the width of the insertion port 41 in the extending direction of the guiding channel 31 increases sequentially from the end close to the guiding channel 31 to the end far from the guiding channel 31, there is no need to align during chip loading. Just ensure that the single-chip microcomputer is directly inserted into the insertion port 41 facing backward, so as to be automatically aligned by the insertion port 41 and finally pushed into the slot 11 by the insertion port 41. Therefore, the chip loading efficiency of the single-chip microcomputer can be effectively improved by means of this chip loading platform.
[0041] The above is only a preferred specific embodiment of the present utility model, but the protection scope of the present utility model is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present utility model, according to the technical solution of the present utility model and its inventive concept, makes equivalent replacements or changes, and should be covered by the protection scope of the present utility model.
Claims
1. A side-inserted single-chip microcomputer turnover box, characterized in that, Comprising: A box body (1) and a side cover (2), wherein: The box body (1) includes a bottom plate with a rectangular structure, a first end plate and a second end plate respectively fixed at both ends of the bottom plate, a side plate fixed on one side of the bottom plate and connecting the first end plate and the second end plate, and a plurality of spacer plates; the spacer plates are perpendicular to the side plate, and all the spacer plates are fixed on the bottom plate and are arranged at intervals along the connection direction of the first end plate and the second end plate to form a slot (11); The side cover (2) is arranged opposite to the side plate and is detachably connected to the first end plate and the second end plate.
2. The side-inserted single-chip microcomputer turnover box according to claim 1, characterized in that On one side of the bottom plate away from the side plate, there are extension edges extending away from the side plate, and insertion slots (12) are provided on the extension edges; at the lower end of the side cover (2), there is an insertion portion matching the insertion slot (12), the side cover (2) is provided with a first longitudinal slot (b1) and a second longitudinal slot (b2) perpendicular to the side where the insertion portion is located, and one ends of the first longitudinal slot (b1) and the second longitudinal slot (b2) close to the insertion portion are through ends; the insertion portion at the lower end of the side plate is located in the insertion slot (12), and one sides of the first end plate and the second end plate away from the side plate are respectively located in the first longitudinal slot (b1) and the second longitudinal slot (b2).
3. The side-inserted single-chip microcomputer turnover box according to claim 1, characterized in that, At both ends of the side cover (2), there are respectively a first baffle (21) and a second baffle (22), the first baffle (21) fits on one side of the first end plate away from the second end plate, and the two are connected by a magnetic component; the second baffle (22) fits on one side of the second end plate away from the first end plate, and the two are connected by a magnetic component.
4. A loading table for the side-inserted single-chip microcomputer turnover box according to any one of claims 1-3, characterized in that, Comprising: A placement table (3) and an insertion piece table (4), wherein: On the placement table (3), there is a guiding channel (31) for the box body (1) to pass through, and the guiding channel (31) is a linear channel with both ends through; The insertion piece table (4) is fixed on one side of the guiding channel (31), the insertion piece table (4) is provided with an insertion piece opening (41) arranged along the width direction of the guiding channel (31), and the top of the insertion piece opening (41) is open, one end of the insertion piece opening (41) close to the guiding channel (31) is communicated with the guiding channel (31), and the width of the insertion piece opening (41) in the extending direction of the guiding channel (31) increases sequentially from the end close to the guiding channel (31) to the end away from the guiding channel (31).
5. The loading platform of the side-inserted single-chip microcomputer turnover box according to any one of claims 1-3, as claimed in claim 4, wherein There are multiple insertion piece openings (41), which are arranged sequentially along the extending direction of the guiding channel (31), and the distance between each insertion piece opening (41) is a multiple of the width of the slot (11).
6. The loading platform of the side-inserted single-chip microcomputer turnover box according to any one of claims 1-3 as claimed in claim 4, characterized in that, On the side wall of the guiding channel (31), there is a receiving groove (c) and a positioning component (5) movably installed at one end of the receiving groove (c) and capable of rotating towards the other end of the receiving groove (c), and when one end of the box body (1) contacts the positioning component (5), all the insertion piece openings (41) are respectively docked with the corresponding slots (11) in the box body (1).
7. The loading table of the side-inserted single-chip microcomputer turnover box according to any one of claims 1-3, as claimed in claim 6, is characterized in that, The positioning component (5) includes a positioning rod, a pin shaft and a torsion spring, one end of the positioning rod is movably installed in the positioning groove through the pin shaft; the torsion spring is installed on the pin shaft, and the support rods at both ends of the torsion spring are located on one side of the positioning rod and respectively abut against the bottom of the positioning groove and the side wall of the positioning rod.
8. The loading table of the side-inserted single-chip microcomputer turnover box according to any one of claims 1-3 as claimed in claim 6, characterized in that, There are multiple positioning components (5), and each positioning component (5) is located at a position with a receiving groove (c) matching it, and the width between two adjacent positioning components (5) matches the width of the slot (11).