CN211264723U - Physical experiment mechanical device - Google Patents

Physical experiment mechanical device Download PDF

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Publication number
CN211264723U
CN211264723U CN202020082369.2U CN202020082369U CN211264723U CN 211264723 U CN211264723 U CN 211264723U CN 202020082369 U CN202020082369 U CN 202020082369U CN 211264723 U CN211264723 U CN 211264723U
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China
Prior art keywords
circuit board
rfid card
matched
slider
module
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CN202020082369.2U
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Chinese (zh)
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姚夸克
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Guangdong Xinhua Bookstore Co.,Ltd.
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Guangdong Xinhua Bookstore Co ltd
Shenzhen Cross One Technology Co ltd
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Abstract

The utility model discloses a physics experiment mechanics device, including base module, tensiometer module and slider module, base module includes the base, first connecting plate and first circuit board, the cooperation groove has been seted up to the upper surface of base, the cooperation inslot cooperation has the second circuit board, the cooperation inslot cooperation of the top of second circuit board has first apron, first recess has been seted up to the both sides of base, first recess fit in has first connecting plate, first circuit board cooperation is on the inside wall surface of first connecting plate, slider module includes the slider body, the slider body sets up the top at first apron, be provided with the cooperation piece on one side wall of slider body, the tensiometer module includes shell, calibrated scale, pull ring and drag hook, the utility model aims to provide a high intelligent degree, real-time supervision, data are reliable, and is easy to operate, but real time monitoring pulling force value, The sliding block movement information is stored and analyzed, and the experiment score is given in real time.

Description

Physical experiment mechanical device
Technical Field
The utility model belongs to the technical field of the experimental apparatus and specifically relates to a physics experiment mechanics device.
Background
Physics is a natural science based on observation and experiment, and the experimental basis, theoretical system and research method of physics play a very important role in the development of intelligent structures of students. Since physics itself is abstract, if the dispersing thinking and creativity of students can be cultured in the teaching of physical experiments, the cognitive ability of students is improved, and the germination of creativity plays a powerful role, so that many students specially set up physical experiment courses, in the operation process of students on related physical components, the cognitive ability and the practical ability of students on the related components are improved, and further the interest of students on the physical courses is improved.
In a physical experiment mechanical experiment, an operator needs to operate the tension meter to pull the sliding block to complete related physical experiment operation, and the tension meter, the sliding block, the weight and the like need to be put back to the original positions after the operation is finished; the tension meter is a mechanical instrument for measuring tension, has the advantages of high precision, easy operation and convenient carrying, and in a physical experiment mechanical experiment, a mechanical tension meter is needed to pull a sliding block, and the tension value is obtained by reading the numerical value on an upper dial of the tension meter; and then obtaining related experiment operation scores, wherein in the physical experiment mechanical examination, teachers observe the operation of students so as to evaluate the physical experiment scores.
Most of the existing mechanical tension meter experiments have the following problems:
1) in a physical experiment mechanical examination, a teacher needs to observe the operation of students to give experiment scores, so that the scoring efficiency is low, and the possibility of misjudgment exists;
2) in a physical experiment mechanical test, whether the pull piece returns to the original point position can be judged only by human eyes, and the pull piece cannot be detected by an intelligent method;
3) in a physical experiment mechanical examination, the tension value of a student operating a tension meter can only be judged by human eyes and cannot be detected by an intelligent method;
4) in a physical mechanics experiment, a student pulls a motion track, a motion speed and a motion distance of a sliding block, and the motion track, the motion speed and the motion distance cannot be detected by an intelligent method;
5) in a physical mechanics experiment, whether a student pulls a sliding block is standard can be judged only by human eyes, and the intelligent method cannot be used for detection;
therefore, it is necessary to design an intelligent device for use in physical mechanics experiments.
SUMMERY OF THE UTILITY MODEL
The utility model discloses it is not enough to above-mentioned technique, provide an intelligent degree height, real-time supervision, data are reliable, easy operation, but real time monitoring pulling force value, slider motion information save the analysis to data, give the physics experiment mechanics device of experiment score in real time.
In order to achieve the above purpose, the utility model discloses a following technical scheme realizes:
a physical experiment mechanical device comprises a base module, a tensiometer module and a slider module, wherein the base module comprises a base, a first connecting plate and a first circuit board, a matching groove is formed in the upper surface of the base, a second circuit board is matched in the matching groove, a first cover plate is matched in the matching groove above the second circuit board, first grooves are formed in two sides of the base, the first connecting plate is matched in the first grooves, the first circuit board is matched on the inner side wall surface of the first connecting plate, the slider module comprises a slider body, the slider body is arranged above the first cover plate, a drag hook matching block is arranged on one side wall surface of the slider body, the tensiometer module comprises a shell, a dial, a pull ring and a drag hook, a first pull piece is arranged on one side of the shell, one end of the drag hook is buckled on the first pull piece, the other end of the draw hook is hooked in the through hole in the draw hook matching block, a draw ring is matched in the draw ring mounting hole in the other side of the shell, and the dial is arranged on the top surface of the shell.
Furthermore, a plurality of first correlation inductors are embedded on the inner side wall surface of the first circuit board.
Furthermore, a first RFID card inductor is embedded in the upper surface of the second circuit board.
Further, be provided with the indicator plate on the first pulling-on piece, the indicator plate is located the breach below of calibrated scale.
Furthermore, the bottom of the dial is provided with a convex block, and a second groove is formed in the convex block.
Further, the bottom of shell is provided with the second apron, be provided with the third circuit board in the shell of second apron top, one side of third circuit board is provided with two second correlation inductors at least, first pulling-on piece sets up in the shell of calibrated scale below, the one end of first pulling-on piece is connected with the spring, the other end hook of spring is hung on the spring mounting piece, the other end of spring mounting piece has gravity sensor through the bolt cooperation, one side of gravity sensor has the connecting block through the bolt cooperation.
Further, the top surface inboard of shell is provided with second correlation inductor cooperation piece, in the second correlation inductor cooperation groove of second correlation inductor cooperation on second correlation inductor cooperation piece, one side of second correlation inductor cooperation piece is provided with connecting block cooperation post, the connecting block passes through the bolt cooperation on the connecting block mounting hole of connecting block cooperation post.
Further, the spout has been seted up at the top of shell, first pulling-on piece cooperation is in the spout, reset hole has been seted up on the shell wall of spout below, it has the reset button corresponding with reset hole position to inlay on the third circuit board, the cable opening has been seted up on one side wall of shell, it has the cable interface corresponding with cable opening position to inlay on the third circuit board.
Further, the slider module still includes slide, first RFID card and second RFID card, the slide mating holes has been seted up to slider body bottom, the slide cooperation is downthehole in the slide mating holes, the outside wall of slide is first sliding surface, first RFID card mating holes has all been seted up at slider body's bottom center and slide center, first RFID card cooperation is downthehole in first RFID card mating holes, second RFID card mating holes has all been seted up on the third sliding surface on left second sliding surface of slider body and the right side, the cooperation of second RFID card is downthehole in second RFID card mating holes.
The utility model has the advantages that:
the intelligent degree is high, real-time supervision, and data are reliable, and easy operation can real-time supervision pulling force value, slider motion information and save the analysis to data, gives the experiment score in real time.
Drawings
Fig. 1 is a schematic view of the overall structure of the present invention.
Fig. 2 is a schematic structural diagram of a base module.
Fig. 3 is a schematic bottom structure diagram of the tension meter module.
Fig. 4 is a schematic structural view of the housing.
Fig. 5 is a schematic diagram of the component structure of the tension meter module.
Fig. 6 is a schematic view of the first pull tab engaged within the housing.
Fig. 7 is a schematic structural view of a slider module.
Fig. 8 is a schematic structural view of the slider body.
In the figure, a base 1, a first connecting plate 2, a first circuit board 3, a matching groove 4, a second circuit board 5, a first cover plate 6, a first groove 7, a slider body 8, a hook matching block 9, a housing 10, a dial 11, a pull ring 12, a hook 13, a first pull tab 14, a first correlation inductor 15, a first RFID card inductor 16, a second cover plate 17, a third circuit board 18, a second correlation inductor 19, a spring 20, a spring mounting block 21, a gravity sensor 22, a connecting block 23, a second correlation inductor matching block 24, a second correlation inductor matching groove 25, a connecting block matching column 26, a connecting block mounting hole 27, a sliding groove 28, a reset hole 29, a reset button 30, a cable opening 31, a cable interface 32, a slider 33, a first RFID card 34, a second RFID card 35, a slider matching hole 36, a first RFID card matching hole 37, a second RFID card matching hole 38, an indicating sheet 39, a second RFID card matching hole 38, a second pull tab 9, a pull tab matching block 14, a, Notch 40, projection 41, second recess 42, tab mounting hole 43, first slide 44, second slide 45, and third slide 46.
Detailed Description
As shown in the combination of figures 1-7, a physical experiment mechanical device comprises a base module, a tension meter module and a slider module, wherein the base module comprises a base 1, a first connecting plate 2 and a first circuit board 3, a matching groove 4 is formed in the upper surface of the base 1, a second circuit board 5 is matched in the matching groove 4, a first cover plate 6 is matched in the matching groove 4 above the second circuit board 5, first grooves 7 are formed in two sides of the base 1, the first connecting plate 2 is matched in the first grooves 7, the first circuit board 3 is matched on the inner side wall surface of the first connecting plate 2, the slider module comprises a slider body 8, the slider body 8 is arranged above the first cover plate 6, a matching block 9 is arranged on one side wall surface of the slider body 8, the tension meter module comprises a shell 10, a dial 11, a draw hook, Pull ring 12 and drag hook 13, one side of shell 10 is provided with first pulling-on piece 14, the one end lock of drag hook 13 is on first pulling-on piece 14, the other end hook of drag hook 13 is hung in the through-hole on drag hook cooperation piece 9, the pull ring mounting hole 43 fit in of the opposite side of shell 10 has pull ring 12, calibrated scale 11 sets up on the top surface of shell 10.
A plurality of first correlation inductors 15 are embedded on the inner side wall surface of the first circuit board 3.
The upper surface of the second circuit board 5 is embedded with a first RFID card inductor 16.
The first pull tab 14 is provided with an indicator piece 39, and the indicator piece 39 is positioned below the notch 40 of the dial 11.
The bottom of the dial 11 is provided with a projection 41, and a second groove 42 is formed on the projection 41.
The bottom of shell 10 is provided with second apron 17, be provided with third circuit board 18 in the shell 10 of second apron 17 top, one side of third circuit board 18 is provided with two second correlation inductors 19 at least, first pulling-on piece 14 sets up in the shell 10 of calibrated scale 11 below, the one end of first pulling-on piece 14 is connected with spring 20, spring 20's the other end hook is hung on spring mounting piece 21, spring mounting piece 21's the other end has gravity sensor 22 through the bolt cooperation, one side of gravity sensor 22 has connecting block 23 through the bolt cooperation.
The top surface inboard of shell 10 is provided with second correlation inductor cooperation piece 24, second correlation inductor 19 cooperation is in second correlation inductor cooperation groove 25 on second correlation inductor cooperation piece 24, one side of second correlation inductor cooperation piece 24 is provided with connecting block cooperation post 26, connecting block 23 passes through the bolt cooperation on connecting block mounting hole 27 of connecting block cooperation post 26.
A sliding groove 28 is formed in the top of the housing 10, the first pull piece 14 is matched in the sliding groove 28, a reset hole 29 is formed in the wall surface of the housing 10 below the sliding groove 28, a reset button 30 corresponding to the position of the reset hole 29 is embedded in the third circuit board 18, a cable opening 31 is formed in one side wall surface of the housing 10, and a cable interface 32 corresponding to the position of the cable opening 31 is embedded in the third circuit board 18.
The slider module further comprises a sliding plate 33, a first RFID card 34 and a second RFID card 35, a sliding plate matching hole 36 is formed in the bottom of the slider body 8, the sliding plate 33 is matched in the sliding plate matching hole 36, the outer side wall surface of the sliding plate 33 is a first sliding surface 44, first RFID card matching holes 37 are formed in the center of the bottom of the slider body 8 and the center of the sliding plate 33, the first RFID card 34 is matched in the first RFID card matching holes 37, second RFID card matching holes 38 are formed in a second sliding surface 45 on the left side of the slider body 8 and a third sliding surface 46 on the right side of the slider body, and the second RFID card 35 is matched in the second RFID card matching holes 38.
When in use:
for the base module, the user horizontally places the base module, electrically connects the base module to an external power supply, and confirms whether the first correlation sensor 15 on the first circuit board 3 is in a correlation. For the tension meter module, the user observes whether the position of the indicator sheet 39 on the first pull tab 14 is aligned with the origin on the scale 11, if the position is not returned to the origin, the adjustment moving scale 11 slides up and down along the slide groove 28 on the housing 10, and finally the position of the indicator sheet 39 on the first pull tab 14 is aligned with the origin on the scale 11; for a slider system, the user selects the slide surface that needs to be in contact with the surface of the base module, say the first slide surface 44, the second slide surface 45 or the third slide surface 46, and then places the slider module over the first cover plate 6; then the user catches on the slider module with the drag hook 13, holds the pull ring 12 with the hand, then places the tensiometer level, pulls the tensiometer forward to pull the object forward motion together, this moment indicator 39 also slides on calibrated scale 11, reads the pulling force numerical value on from calibrated scale 11 and is the pulling force of pulling the object, this part is the pulling force value that the user observed.
When the user places the slider module on the base module, the second RFID card sensor on the second circuit board 5 below the cover plate can sense the information of the RFID card above the first cover plate 6, so that the sliding surface of the slider module can be identified to be in contact with the base module through the software background.
When the user adjusts the moving dial 11 to finally align the position of the indicator piece 39 on the first pull tab 14 with the origin on the dial 11, the second opposite-direction sensor on the third circuit board 18 determines whether the second groove 42 in front of the second opposite-direction sensor is blocked, and if not, the indicator piece 39 is aligned with the origin, so that whether the indicator piece 39 returns to the origin can be determined from the background. When a user uses the tension meter module to pull an external object, because the drag hook 13, the pull sheet, the spring 20, the spring mounting block 21 and the gravity sensor 22 are connected into a whole, the pulling force pulled by the drag hook 13 can be transmitted to the gravity sensor 22, the pulling force value signal acquired by the gravity sensor 22 is transmitted to the third circuit board 18, and the third circuit board 18 transmits data to external equipment for storage and analysis through a cable on the cable interface 32
When a user pulls the slider module by using the tension meter module, the slider module moves forwards, whether an obstacle exists in the front of the first correlation inductor 15 on the first circuit board 3 is continuously identified, the sliding distance and the sliding time of the slider module are identified by processing signals of the correlation sensors, and therefore information such as the sliding instantaneous speed, the sliding average speed and the sliding uniform speed of the slider module can be calculated.
Data of the tension meter module and data collected by a circuit board on the base module are transmitted to external equipment through cables to be stored and analyzed, real-time tension values of the tension meter can be judged through analysis of the external equipment, information such as displacement speed of the sliding block is judged, whether operation of an operator meets the specification or not can be judged, and whether operation of the operator is qualified or not can be judged. In a specific physical experiment examination, the corresponding experiment scores can be directly given to students on external equipment according to the operation of the students, and the real-time monitoring and intelligent scoring of the physical experiment mechanical device are realized.
On the operation display screen of external equipment, when the user operates the tensiometer module, the backstage can monitor real-time tension value in real time, the user sees the tension value of the external tensiometer with eyes, data input can be carried out on the operation display screen, the backstage can compare the tension value input by the user with the tension value obtained from the gravity sensor 22, and when the user operation is finished, the experimental score of the operation of the user can be given in real time according to the set scoring standard of the backstage of the external equipment. If the user disagrees with the score, the tension value in the operation process at that time can be called back on the external equipment, so that whether the score is judged by mistake or not can be judged through data monitoring.
When the tension meter is in a dead halt condition, the operation of resetting the circuit of the tension meter can be achieved by pressing the reset button 30 on the third circuit board 18 through the reset hole 29 with a sharp object.
Furthermore, it should be understood that although the present description refers to embodiments, not every embodiment may contain only a single embodiment, and such description is for clarity only, and those skilled in the art should integrate the description, and the embodiments may be combined as appropriate to form other embodiments understood by those skilled in the art.

Claims (9)

1. A physical experiment mechanical device is characterized by comprising a base module, a tensiometer module and a slider module, wherein the base module comprises a base, a first connecting plate and a first circuit board, the upper surface of the base is provided with a matching groove, a second circuit board is matched in the matching groove, a first cover plate is matched in the matching groove above the second circuit board, two sides of the base are provided with first grooves, the first connecting plate is matched in the first grooves, the first circuit board is matched on the inner side wall surface of the first connecting plate, the slider module comprises a slider body, the slider body is arranged above the first cover plate, a drag hook matching block is arranged on one side wall surface of the slider body, the tensiometer module comprises a shell, a dial, a pull ring and a drag hook, a first pull piece is arranged on one side of the shell, one end of the drag hook is buckled on the first pull piece, the other end of the draw hook is hooked in the through hole in the draw hook matching block, a draw ring is matched in the draw ring mounting hole in the other side of the shell, and the dial is arranged on the top surface of the shell.
2. The physical experiment mechanical device according to claim 1, wherein a plurality of first correlation sensors are embedded on the inner side wall surface of the first circuit board.
3. The physical experiment mechanical device according to claim 1, wherein the first RFID card sensor is embedded in the upper surface of the second circuit board.
4. The physical experimental mechanics apparatus of claim 1 wherein the first pull tab has an indicator tab disposed thereon, the indicator tab being located below the notch of the dial.
5. The physical experiment mechanical device according to claim 1, wherein a protrusion is disposed at the bottom of the dial, and a second groove is disposed on the protrusion.
6. The physical experiment mechanical device according to claim 1, wherein a second cover plate is arranged at the bottom of the housing, a third circuit board is arranged in the housing above the second cover plate, at least two second correlation sensors (19) are arranged on one side of the third circuit board, the first pulling-on piece is arranged in the housing below the dial, one end of the first pulling-on piece is connected with a spring, the other end of the spring is hooked on a spring mounting block, the other end of the spring mounting block is matched with a gravity sensor through a bolt, and a connecting block is matched with one side of the gravity sensor through a bolt.
7. The physical experiment mechanical device according to claim 6, wherein a second correlation inductor matching block is arranged on the inner side of the top surface of the housing, the second correlation inductor (19) is matched in a second correlation inductor matching groove on the second correlation inductor matching block, a connecting block matching column is arranged on one side of the second correlation inductor matching block, and the connecting block is matched on a connecting block mounting hole of the connecting block matching column through a bolt.
8. The physical experiment mechanical device according to claim 6, wherein a sliding groove is formed in the top of the housing, the first pull-tab is fitted in the sliding groove, a reset hole is formed in the wall surface of the housing below the sliding groove, a reset button corresponding to the position of the reset hole is embedded in the third circuit board, a cable opening is formed in one side wall surface of the housing, and a cable interface corresponding to the position of the cable opening is embedded in the third circuit board.
9. The physical experiment mechanical device according to claim 1, wherein the slider module further comprises a sliding plate, a first RFID card and a second RFID card, a sliding plate fitting hole is formed in the bottom of the slider body, the sliding plate fits in the sliding plate fitting hole, the outer side wall surface of the sliding plate is a first sliding surface, first RFID card fitting holes are formed in the center of the bottom of the slider body and the center of the sliding plate, the first RFID card fits in the first RFID card fitting hole, second RFID card fitting holes are formed in the second sliding surface on the left side of the slider body and the third sliding surface on the right side of the slider body, and the second RFID card fits in the second RFID card fitting hole.
CN202020082369.2U 2020-01-15 2020-01-15 Physical experiment mechanical device Active CN211264723U (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN202020082369.2U CN211264723U (en) 2020-01-15 2020-01-15 Physical experiment mechanical device

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN202020082369.2U CN211264723U (en) 2020-01-15 2020-01-15 Physical experiment mechanical device

Publications (1)

Publication Number Publication Date
CN211264723U true CN211264723U (en) 2020-08-14

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ID=71959994

Family Applications (1)

Application Number Title Priority Date Filing Date
CN202020082369.2U Active CN211264723U (en) 2020-01-15 2020-01-15 Physical experiment mechanical device

Country Status (1)

Country Link
CN (1) CN211264723U (en)

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GR01 Patent grant
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TR01 Transfer of patent right

Effective date of registration: 20211029

Address after: 510000 12 Dashatou 4th Road, Yuexiu District, Guangzhou City, Guangdong Province

Patentee after: Guangdong Xinhua Bookstore Co.,Ltd.

Address before: 518000 Room 201, building A, 1 front Bay Road, Shenzhen Qianhai cooperation zone, Shenzhen, Guangdong

Patentee before: Shenzhen cross one Technology Co.,Ltd.

Patentee before: Guangdong Xinhua Bookstore Co.,Ltd.