Detection equipment for production and processing of data line based on Internet of Things

Abstract

The utility model discloses a detection device for producing and processing a data line based on Internet of Things, the structure of the detection device comprises a detection mechanism, a transmission line, a detector and a platform plate, the detection mechanism is embedded and fixed on the surface of the platform plate, the transmission line is connected to the inner side of the detection mechanism, the detector is installed on the surface of the platform plate, and the detector is connected with the transmission line. According to the utility model, the data line connector obliquely slides to the lower position from the inclined surface of the triangular plate, and the upper part of the data line connector is blocked by the triangular plate after sliding, so that the data line connector is guided and fixed, and the problem of collision and extrusion caused by inaccurate connector alignment during data line detection is prevented; and the data line is manually pulled out, so that the side surface of the joint extrudes the ball block, the metal ring generates a rotary compression effect, the ball block is driven to rotate towards the outer side, and the joint is separated from the ball block in a sliding manner, so that the joint can be pulled out only by pulling the data line, the effect of quickly separating from the detection position is realized, and the problem that a buckle connection detection mode is not convenient enough is avoided.

Description

Technical Field

[0001] The utility model relates to the technical field of detection equipment, in particular to a detection equipment for the production and processing of Internet of Things data cables. Background Technique

[0002] The Internet of Things has the effect of network information transmission. When transmitting, data cables are needed for connection and transmission. After the production and processing of Internet of Things data cables, it is necessary to detect whether they are qualified to ensure stable data transmission. The existing detection of data cables is to manually insert the interfaces at both ends of the data cable into two data detection ports, so as to realize the detection of the data cable path.

[0003] However, when manually operating the detection, the data cable connector is in a clamped state to connect to the detection port, and the detection port is in a square state. Since the square of the detection port is small, when detecting, the data cable connector needs to be aligned with the detection port to be clamped and connected. Manual operation is prone to jitter and misalignment of the interface position. The detection port cannot guide the connector into it, and it is easy to have the problem that the data cable connector collides and squeezes the outer end of the detection port. Moreover, when detecting, the data cable interface needs to be clamped to the detection port by a buckle, and the buckle position needs to be pressed again to release after the detection. Precise operations need to be carried out multiple times during the detection, and the fixation of the data cable interface is not convenient enough. Content of the Utility Model

[0004] In view of the deficiencies of the prior art, the present utility model is realized through the following technical solutions: A detection device for the production and processing of Internet of Things data cables, the structure of which includes a detection mechanism, a transmission line, a detector, and a platform plate. The detection mechanism is embedded on the surface of the platform plate. The transmission line is connected to the inside of the detection mechanism. The detector is installed on the surface of the platform plate, and the detector is connected to the transmission line. The detection mechanism is provided with a lateral rod, an opening plate, a transmission plate, a clamping plate, and a connecting plate. The clamping plate is embedded inside the connecting plate. The opening plate is installed at the upper end of the clamping plate. The opening plate is embedded inside the connecting plate. The lateral rod is installed inside the clamping plate. The transmission plate is installed at the middle bottom of the clamping plate. The connecting plate is embedded on the surface of the platform plate. The transmission line is connected to the outer end of the inside of the transmission plate. The clamping plate is in a "concave" shape structure. There are two lateral rods, which are symmetrically distributed with the center of the clamping plate as the axis, and the lateral rods are distributed at the outer side positions of the clamping plate. There are two opening plates, which are symmetrically distributed left and right with the clamping plate as the center.

[0005] As a further optimization of the technical solution, the opening plate is provided with a triangular plate, a limiting structure, a ball, and a spring. The ball is clamped at the lower end of the triangular plate. The triangular plate is slidably matched with the inside of the limiting structure. The spring is installed on the side of the triangular plate. The limiting structure is installed at the upper end of the clamping plate. The spring is embedded inside the connecting plate. The triangular plate is in a state of an inclined vertical line of 35 degrees and has a sliding guiding effect.

[0006] As a further optimization of the technical solution, the limiting structure is provided with a support plate, a track groove, and a round rod. The round rod is slidably fitted inside the track groove. The track groove is located inside the upper end of the support plate. The round rod is embedded in the outer side of the triangular plate. The lower end of the support plate is installed on the upper end of the clamping plate. There are two round rods, which are horizontally arranged and distributed.

[0007] As a further optimization of the technical solution, the side rod is provided with an arc rod, a semi-circular rod, a metal ring, a ball block, and an elastic block. The elastic block is attached to the inner side of the metal ring. The elastic block is embedded in the side of the semi-circular rod. The arc rod is installed on the outer side of the metal ring. The inner side of the metal ring is slidably fitted with the outer side of the semi-circular rod. The arc rod is embedded in the outer side of the ball block. The semi-circular rod is installed on the inner side of the clamping plate. The elastic block is made of rubber material and has the characteristics of large elasticity and easy deformation. The arc rod is made of plastic material and has a certain elastic effect. Beneficial effects

[0008] The detection device for the production and processing of Internet of Things data cables according to the present utility model has the following advantages compared with the prior art:

[0009] In the present utility model, the data cable connector enters the inner position of the clamping plate in the detection mechanism, so that the left and right sides of the data cable connector slide into the opening plate position, and the side rod squeezes and blocks the data cable connector. At the same time, the opening plate elastically clamps the data cable connector entering from below, so that the data cable connector is limited and clamped inside the clamping plate. Then, after the detection is completed, the data cable is manually pulled to make the data cable connector slide out from the inner side of the clamping plate and squeeze the side rod, thereby achieving the effects of convenient detection and quick detachment.

[0010] When the data cable enters the clamping plate for detection in the present utility model, the triangular plate in the opening plate is pressed from above. Then, the data cable connector slides obliquely down from the inclined surface of the triangular plate. After sliding in, the data cable is separated from the extrusion on the side surface of the triangular plate, so that the triangular plate rebounds and resets under the elastic force of the spring. Then, the ball rolls from the side surface of the data cable connector to the upper surface, so that the upper part of the data cable connector is blocked by the triangular plate. Then, the data cable connector only needs to be pressed down to perform fixed detection, which has the effect of guiding and fixing the data cable connector and preventing the problem of collision and extrusion when the data cable is detected due to the misalignment of the connector.

[0011] In the present utility model, when the data cable is manually pulled out, the joint side presses against the spherical block. Then, under the connection of the arc-shaped rod, the metal ring is driven to rotate outside the semi-circular rod. At the same time, one end of the elastic block is rotated and pulled. Under the fixed support of the semi-circular rod, the elastic block is laterally compressed to generate elastic force. Then, the metal ring generates a rotational compression effect, driving the spherical block to rotate outward, so that the joint slides away from the spherical block. Thus, only by pulling the data cable can the joint be pulled out, achieving the effect of quickly disengaging from the detection position and avoiding the inconvenience of the snap connection detection method. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] By reading the detailed description of the non-restrictive embodiments with reference to the following drawings, other features, purposes, and advantages of the present utility model will become more obvious:

[0013] Figure 1 FIG. is a schematic structural diagram of a detection device for the production and processing of an Internet of Things data cable according to the present utility model.

[0014] Figure 2 FIG. is a schematic side structural diagram of a detection mechanism according to the present utility model.

[0015] Figure 3 FIG. is a three-dimensional structural diagram of an opening plate according to the present utility model.

[0016] Figure 4 FIG. is a three-dimensional structural diagram of a limiting structure according to the present utility model.

[0017] Figure 5 FIG. is a planar structural diagram of a lateral rod according to the present utility model.

[0018] In the figure: detection mechanism - 1, transmission line - 2, detector - 3, platform plate - 4, lateral rod - 11, opening plate - 12, transmission plate - 13, engaging plate - 14, connecting plate - 15, triangular plate - w1, limiting structure - w2, ball - w3, spring - w4, support plate - w21, track groove - w22, round rod - w23, arc - shaped rod - t1, semi - circular rod - t2, metal ring - t3, spherical block - t4, elastic block - t5. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0019] In order to make the technical means, creative features, achieved purposes, and functions of the present utility model easy to understand, the preferred implementation schemes of the present utility model will be further described below in conjunction with the specific implementation manners and the drawings. Embodiment

[0020] Please refer to Figures 1-5, the utility model provides a detection device for the production and processing of Internet of Things data cables. Its structure includes a detection mechanism 1, a transmission line 2, a detector 3, and a platform plate 4. The detection mechanism 1 is embedded on the surface of the platform plate 4. The transmission line 2 is connected to the inside of the detection mechanism 1. The detector 3 is installed on the surface of the platform plate 4, and the detector 3 is connected to the transmission line 2. The detection mechanism 1 is provided with a lateral rod 11, an opening plate 12, a transmission plate 13, a clamping plate 14, and a connecting plate 15. The clamping plate 14 is embedded inside the connecting plate 15. The opening plate 12 is installed at the upper end of the clamping plate 14. The opening plate 12 is embedded inside the connecting plate 15. The lateral rod 11 is installed inside the clamping plate 14. The transmission plate 13 is installed at the middle bottom of the clamping plate 14. The connecting plate 15 is embedded on the surface of the platform plate 4. The transmission line 2 is connected to the outer end of the inside of the transmission plate 13. The clamping plate 14 is in a "concave" shape. There are two lateral rods 11, which are symmetrically distributed with the center of the clamping plate 14 as the axis, and the lateral rods 11 are distributed on the outer side of the clamping plate 14. There are two opening plates 12, which are symmetrically distributed left and right with the clamping plate 14 as the center. Thus, the data cable connector enters the inner position of the clamping plate 14 in the detection mechanism 1, and the left and right sides of the data cable connector slide into the opening plate 12. At the same time, the lateral rod 11 squeezes and blocks the data cable connector. At the same time, the opening plate 12 elastically clamps the data cable connector entering from below, so that the data cable connector is limited and clamped inside the clamping plate 14. Then, the data flow line on the surface of the lower data cable connector contacts and connects with the transmission plate 13. Furthermore, the transmission plate 13 transmits the data to the detector 3 through the transmission line 2 to detect whether the data cable can transmit data normally. After the detection is completed, manually pull the data cable, so that the data cable connector slides out from the inside of the clamping plate 14 and squeezes the lateral rod 11, thereby achieving the effects of convenient detection and rapid detachment.

[0021] The opening plate 12 is provided with a triangular plate w1, a limiting structure w2, a ball w3, and a spring w4. The ball w3 is engaged at the lower end of the triangular plate w1. The triangular plate w1 is slidably engaged with the inside of the limiting structure w2. The spring w4 is installed on the side of the triangular plate w1. The limiting structure w2 is installed at the upper end of the engaging plate 14. The spring w4 is embedded and fixed inside the connecting plate 15. The triangular plate w1 is in a state of being inclined at 35 degrees to the vertical line, having a sliding guiding effect. Thus, when the data cable enters, it presses the triangular plate w1 from above. Furthermore, the lower edge position of the data cable connector presses the triangular plate w1, causing the triangular plate w1 to slide outward on the inner side of the upper end of the limiting structure w2. Then, the triangular plate w1 compresses and moves the spring w4, enabling the data cable connector to slide obliquely from the triangular plate w1 into the lower position. After sliding in, the data cable disengages from the extrusion against the side of the triangular plate w1, causing the triangular plate w1 to rebound and reset under the elastic force of the spring w4. Furthermore, the ball w3 slides from the side of the data cable connector to the upper surface, blocking the upper part of the data cable connector. Then, the data cable connector only needs to be pressed downward to perform a fixed detection, having an effect of guiding and fixing the data cable connector, preventing the connector from being misaligned during data cable detection and causing collision and extrusion.

[0022] The limiting structure w2 is provided with a support plate w21, a track groove w22, and a round rod w23. The round rod w23 is slidably engaged with the inside of the track groove w22. The track groove w22 is located inside the upper end of the support plate w21. The round rod w23 is embedded and fixed on the outside of the triangular plate w1. The lower end of the support plate w21 is installed at the upper end of the engaging plate 14. There are two round rods w23, horizontally arranged and distributed. Thus, when the triangular plate w1 is stressed, it horizontally slides in the track groove w22 through the connection of the round rod w23, enabling the triangular plate w1 to maintain horizontal movement on the upper end of the support plate w21, avoiding the triangular plate w1 moving upward to generate a gap when blocking the lower data cable connector, causing it to lose the blocking force on the lower part.

[0023] The lateral rod 11 is provided with an arc rod t1, a semi-circular rod t2, a metal ring t3, a spherical block t4, and an elastic block t5. The elastic block t5 is attached to the inner side of the metal ring t3. The elastic block t5 is fixedly embedded on the side surface of the semi-circular rod t2. The arc rod t1 is installed on the outer side of the metal ring t3. The inner side of the metal ring t3 is in sliding fit with the outer side of the semi-circular rod t2. The arc rod t1 is fixedly embedded on the outer side of the spherical block t4. The semi-circular rod t2 is installed inside the clamping plate 14. The elastic block t5 is made of rubber and has the characteristics of large elasticity and easy deformation. The arc rod t1 is made of plastic and has a certain elastic effect. When the data cable connector enters the inside of the clamping plate 14, the spherical block t4 comes into contact with and fixes the outer side of the data cable connector, so that the data cable connector is clamped inside the clamping plate 14 and aligned with the contact position of the lower transmission plate 13. Then, when the data cable is manually pulled out, the side surface of the connector presses against the spherical block t4. Then, under the connection of the arc rod t1, the metal ring t3 rotates on the outer side of the semi-circular rod t2, and at the same time, one end of the elastic block t5 is rotated and pulled. Under the fixed support of the semi-circular rod t2, the elastic block t5 is laterally compressed to generate elastic force. Then, the metal ring t3 generates a rotational compression effect, driving the spherical block t4 to rotate outward. Then, the spherical block t4 slides on the side surface of the data cable connector. After the connector slides out, the spherical block t4 no longer compresses the metal ring t3. Then, the metal ring t3 rebounds, making the spherical block t4 reset to contact and fix the subsequent data cable connector. Thus, only by pulling the data cable can the connector be pulled out, achieving the effect of quickly disengaging from the detection position and avoiding the inconvenience of the buckle connection detection method.

[0024] Working principle: In the present utility model, when the data cable connector enters the inner position of the clamping plate 14 in the detection mechanism 1, the left and right sides of the data cable connector slide in through the opening plate 12, and the lateral rod 11 squeezes and blocks the data cable connector. At the same time, the opening plate 12 elastically clamps the data cable connector entering from below, so that the data cable connector is limited and clamped inside the clamping plate 14. Then, the data flow line on the surface of the lower connector of the data cable is in contact connection with the transmission plate 13. Then, the transmission plate 13 transmits the data to the inside of the detector 3 through the transmission line 2 to detect whether the data cable can transmit data normally. After the detection is completed, the data cable is manually pulled, so that the data cable connector slides out of the inner side of the clamping plate 14 and presses against the lateral rod 11, thereby achieving the effects of convenient detection and quick disengagement.

[0025] In the present utility model, when the data cable enters the engaging plate 14 for detection, it presses the triangular plate w1 in the opening plate 12 from above. Then, the lower edge position of the data cable connector squeezes the triangular plate w1, causing the triangular plate w1 to horizontally slide in the track groove w22 under the connection of the round rod w23 in the limiting structure w2, so that the triangular plate w1 maintains horizontal movement on the upper end of the support plate w21, avoiding the upward movement of the triangular plate w1 when blocking the data cable connector below, generating a gap and causing it to lose the blocking force on the lower side. Then, when the triangular plate w1 slides horizontally outwards, it compresses the spring w4. Then, the data cable connector slides obliquely into the lower position from the inclined surface of the triangular plate w1. After sliding in, the data cable disengages from the extrusion on the side of the triangular plate w1, causing the triangular plate w1 to rebound and reset under the elastic force of the spring w4. Then, the ball w3 slides from the side of the data cable connector to the upper surface, blocking the upper part of the data cable connector. Then, the data cable connector only needs to be pressed down to be fixed for detection, having the effect of guiding and fixing the data cable connector, and preventing the problem of collision and extrusion when the connector is misaligned during data cable detection.

[0026] In the present utility model, when the data cable connector enters the engaging plate 14, the ball block t4 contacts and fixes the outer side of the data cable connector under the elasticity of the arc-shaped rod t1, causing the data cable connector to be engaged inside the engaging plate 14 and aligned with the contact position of the lower transmission plate 13. Then, when the data cable is manually pulled out, the side of the connector squeezes the ball block t4. Then, under the connection of the arc-shaped rod t1, it drives the metal ring t3 to rotate outside the semi-circular rod t2, and at the same time rotates and pulls one end of the elastic block t5. Under the fixed support of the semi-circular rod t2, the elastic block t5 is laterally compressed to generate elastic force. Then, the metal ring t3 generates a rotational compression effect, driving the ball block t4 to rotate outwards, causing the connector to slide away from the ball block t4. Then, the ball block t4 slides with the side of the data cable connector. After the connector slides away, the ball block t4 no longer compresses the metal ring t3. Then, the metal ring t3 rebounds, causing the ball block t4 to reset and contact and fix the subsequent data cable connectors. Thus, only by pulling the data cable can the connector be pulled out, achieving the effect of quickly disengaging from the detection position and avoiding the inconvenience of the snap connection detection method.

[0027] The above shows and describes the basic principles, main features and advantages of the present utility model. Those skilled in the art should understand that the present utility model is not limited by the above embodiments. The above embodiments and the descriptions in the specification only illustrate the principles of the present utility model. Without departing from the spirit or basic features of the present utility model, the present utility model can not only be implemented in other specific forms, but also have various changes and improvements. These changes and improvements all fall within the scope of the present utility model claimed. Therefore, the scope of protection claimed by the present utility model is defined by the appended claims and their equivalents, rather than the above description.

[0028] In addition, it should be understood that although this specification is described in terms of embodiments, not every embodiment contains only an independent technical solution. This narrative style of the specification is only for clarity. Those skilled in the art should regard the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. A detection device for production and processing of Internet of Things data lines, the structure of which includes a detection mechanism (1), a transmission line (2), a detector (3), and a platform plate (4), characterized in that: The detection mechanism (1) is embedded in the surface of the platform plate (4), the transmission line (2) is connected to the inner side of the detection mechanism (1), the detector (3) is installed on the surface of the platform plate (4), and the detector (3) is connected to the transmission line (2); The detection mechanism (1) is provided with a lateral rod (11), an opening plate (12), a transmission plate (13), a clamping plate (14), and a connecting plate (15); the clamping plate (14) is embedded in the inner side of the connecting plate (15); the opening plate (12) is mounted on the upper end of the clamping plate (14); the opening plate (12) is embedded in the inner side of the connecting plate (15); the lateral rod (11) is mounted on the inner side of the clamping plate (14); the transmission plate (13) is mounted on the middle bottom of the clamping plate (14); the connecting plate (15) is embedded in the surface of the platform plate (4); and the transmission line (2) is connected to the inner outer end of the transmission plate (13).

2. The detection device for producing and processing Internet of Things data cables according to claim 1 is characterized in that: The opening plate (12) is provided with a triangular plate (w1), a limiting structure (w2), a ball (w3), and a spring (w4); the ball (w3) is engaged with the lower end of the triangular plate (w1); the triangular plate (w1) and the limiting structure (w2) are slidably matched inside; the spring (w4) is installed on the side of the triangular plate (w1); the limiting structure (w2) is installed on the upper end of the locking plate (14); and the spring (w4) is embedded in the inner side of the connecting plate (15).

3. The detection device for producing and processing Internet of Things data lines according to claim 2 is characterized in that: The limiting structure (w2) is provided with a support plate (w21), a track groove (w22), and a round rod (w23); the round rod (w23) is slidably matched inside the track groove (w22); the track groove (w22) is located inside the upper end of the support plate (w21); the round rod (w23) is embedded on the outer side of the triangular plate (w1); and the lower end of the support plate (w21) is mounted on the upper end of the locking plate (14).

4. The detection device for producing and processing Internet of Things data lines according to claim 1 is characterized in that: The lateral rod (11) is provided with an arc rod (t1), a semicircular rod (t2), a metal ring (t3), a ball block (t4), and an elastic block (t5); the elastic block (t5) is fitted on the inner side of the metal ring (t3); the elastic block (t5) is embedded in the side of the semicircular rod (t2); the arc rod (t1) is installed on the outer side of the metal ring (t3); the inner side of the metal ring (t3) is slidably matched with the outer side of the semicircular rod (t2); the arc rod (t1) is embedded in the outer side of the ball block (t4); and the semicircular rod (t2) is installed on the inner side of the clamping plate (14).

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