An auxiliary analysis device for power line loss

Abstract

The present invention discloses an auxiliary power line loss analysis device, belonging to the technical field of power equipment. In the existing technology, the detected wire body is relatively long, which is not convenient for performing cyclic detection operations when guiding the detection wire body, thus reducing the efficiency of subsequent auxiliary analysis of the power line. The device includes a guiding and limiting seat, a fixed guide groove, a toothed belt, a guiding component, an analysis device, and a wire feeding device. The upper end face of the wire feeding device is symmetrically provided with guiding and limiting seats for limiting. By setting the analysis device, when performing auxiliary analysis of the power line loss, the servo motor can synchronously drive the second bevel gear and the guiding roller to rotate through the transmission guide shaft, so that the second bevel gear can drive the wire feeding device to rotate intermittently through the first bevel gear. At the same time, the guiding roller can cooperate with the intermittent wire supply of the wire feeding device, and then perform cyclic analysis and detection operations on the supplied power line, maximizing the detection efficiency of the device for the power line.

Description

Technical Field

[0001] The present invention relates to the technical field of power equipment, and particularly to an auxiliary power line loss analysis device. Background Art

[0002] Line loss refers to the energy loss dissipated in the form of heat, usually referring to the active power consumed by the resistance or conductance in the line. This phenomenon is quite common in power transmission. Currently, substations can analyze the power line loss by calculating the effective output in the line through a line loss analysis device. Various damages and problems outside the line may also cause line loss.

[0003] For example, in the invention patent disclosed with the publication number: CN114236274A, the present invention provides a power line loss analysis device including an installation table, on the upper left end surface of which an installation frame is fixedly installed. An analysis component is arranged at the inner end of the installation frame, and a first driving motor is installed on the upper right end surface of the installation frame; a limiting plate fixedly installed at the outer end of the installation block, a first installation plate fixedly installed on the left end surface of the installation block, and a transmission rod installed at the lower end of the second driving motor; an adjusting component installed on the upper side end of the installation frame; an inlet pipe installed in the middle of the upper inner side of the installation frame, and a guiding component is installed at the lower end of the upper wall of the installation frame through bolts. Different-diameter mounting holes are opened inside the connection disk. This power line loss analysis device is convenient for better limiting lines of different sizes, and at the same time has a good guiding effect on the line during analysis, is convenient for adjusting the length of the line, and thus can control the range of line loss analysis.

[0004] For example, in the utility model patent disclosed with the publication number: CN216485272U, which is applicable to the technical field of power station instruments, a power line loss analysis device is provided. End partitions are oppositely arranged at the intersections of the upper end of the installation bottom plate with the front and rear end faces. On the upper end surface of the installation bottom plate and symmetrically along the longitudinal axis in the area between the two end partitions, an intermediate partition is provided. Horizontal partition mounting frames are provided on the left and right side faces of the intermediate partition and the inner side faces of the end partitions. An external protective cover is provided at the outermost periphery of the upper end surface of the installation bottom plate. First, since the present utility model is provided with an installation bottom plate, end partitions, and an intermediate partition, the installation bottom plate can be divided into several installation bins for placing various detection components, improving the space utilization rate and reducing the workload of the detection personnel during detection; second, since a glass window is provided on the upper end surface of the external protective cover, it is convenient for the detection personnel to observe, further improving the work efficiency of the detection personnel.

[0005] However, in the prior art, the detected wire body is relatively long, and it is not convenient to perform cyclic detection operations when guiding the detected wire body, thus reducing the efficiency of subsequent auxiliary analysis of the power line. We propose an auxiliary power line loss analysis device to solve the above problems. Summary of the Invention

[0006] The object of the present invention is to provide an auxiliary power line loss analysis device to solve the problems raised in the above background technology.

[0007] To achieve the above object, the present invention provides the following technical solution: an auxiliary power line loss analysis device, including a guiding and limiting seat, a fixed guide groove, a toothed belt, a guiding component, an analysis device and a feeding device. The upper end face of the feeding device is symmetrically provided with guiding and limiting seats for limiting, and five groups of fixed guide grooves are evenly and equidistantly opened on the inner end face of the guiding and limiting seats. A guiding component is fixedly installed on the upper end face of the feeding device near the side, and an analysis device is slidably clamped on the upper end face of the feeding device through the guiding component. The feeding device and the guiding component are meshed and connected through a toothed belt.

[0008] As a preferred technical solution of the present invention, the guiding component includes a guiding roller, a first bevel gear, a second bevel gear, a driving toothed belt pulley, a connecting seat, a first limiting chute, a supporting guide groove, a fixed rotating groove, a connecting bottom plate, a servo motor, a driving guide shaft and a second limiting chute. A supporting guide groove for limiting is opened near the center on the side end face of the connecting seat, and fixed rotating grooves for positioning are symmetrically opened on the side end face of the connecting seat. A first limiting chute is vertically penetrated through the center of the upper end face of the connecting seat. A servo motor is fixedly installed at the center of the outer end face of the connecting seat, and a guiding roller is fixedly installed on the inner end face of the connecting seat opposite to the servo motor. Driving guide shafts are symmetrically arranged on the outer end face of the guiding roller. Second bevel gears are fixedly arranged on the outer end faces of the two driving guide shafts. A first bevel gear is rotatably clamped on the inner end face of the fixed rotating groove, and a driving toothed belt pulley is fixedly connected to the center of the rear end face of the first bevel gear. Two groups of second limiting chutes are symmetrically opened on the side end face of the guiding roller, and connecting bottom plates are symmetrically arranged on the lower end face of the connecting seat.

[0009] As a preferred technical solution of the present invention, the analysis device includes a guide plug-in shaft, a fixed shaft sleeve, a connecting side plate, a support card plate, a detection slide, a detection sleeve, a detection contact head and an information collector, the detection slide is fixedly installed at the center of the lower end surface of the support card plate, and five groups of detection sleeves for positioning are evenly and equidistantly fixedly installed on the inner end surface of the detection slide, five groups of detection contact heads are evenly and equidistantly fixed on the inner end surface of the detection sleeve, and an information collector is fixedly installed at the center of the lower end surface of the detection sleeve. Collector, the side end face of the supporting card plate is fixedly connected with a connecting side plate near the top, and a fixed shaft sleeve is fixedly installed at the side end face of the connecting side plate away from the supporting card plate, and a guide plug-in shaft is fixedly provided at the inner end face of the fixed shaft sleeve near the bottom, the fixed shaft sleeve is adapted to the guide roller, and the second limiting slide groove is adapted to the guide plug-in shaft, and the analyzing device is adapted to the guide roller through the fixed shaft sleeve, and the second limiting slide groove is adapted to the guide plug-in shaft, and then is slidably engaged with the inner end face of the fixed groove.

[0010] As a preferred technical solution of the present invention, the inner end surface of the transmission toothed belt wheel is meshedly connected with the second bevel gear through the first bevel gear.

[0011] As a preferred technical solution of the present invention, the connecting side plate is slidably connected with the connecting socket through the supporting guide groove.

[0012] As a preferred technical solution of the present invention, the material guiding device includes a power line guide roller, a transmission device, a connecting belt, a supporting bracket, a guide support, a positioning groove, a fixed pulley, a positioning gear and a limiting gear. The upper end surface of the supporting bracket is symmetrically provided with a guide support for positioning, and the inner end surface of the guide support is provided with a positioning groove for limiting. The inner end surface of the positioning groove is symmetrically rotatably connected with two groups of power line guide rollers, and a limiting gear is fixedly arranged at the center of the side end surface of the power line guide roller. A positioning gear is fixedly installed at the center of the side end surface of the limiting gear, and a fixed pulley is fixedly connected at the center of the side end surface of the positioning gear. The two groups of fixed pulleys are meshed and connected by a connecting belt, and the inner end surface of the guide support is rotatably connected with a transmission device close to the upper part of the power line guide roller.

[0013] As a preferred technical solution of the present invention, the lower end surface of the connecting card seat is fixedly connected to the upper end surface of the supporting card frame through the connecting base plate.

[0014] As a preferred technical solution of the present invention, the transmission device includes a clamping pulley, a guiding rotating shaft, a fixed chuck and connecting teeth. The side end face of the guiding rotating shaft is symmetrically provided with fixed chucks for support, and the outer end face of the fixed chucks is evenly and equidistantly fixedly connected with connecting teeth. The outer end face of the guiding rotating shaft is fixedly connected with a clamping pulley near the side. The outer end face of the clamping pulley is meshed and connected with the outer end face of the transmission toothed pulley through the toothed belt. The outer end face of the fixed chuck is meshed and connected with the outer end face of the limiting gear through the connecting teeth, and the upper and lower adjacent two groups of power line guide rollers are meshed and connected through the positioning gear.

[0015] As a preferred technical solution of the present invention, the detection sleeve and the fixed guide groove are coaxial.

[0016] As a preferred technical solution of the present invention, the lower end face of the support clamping plate is slidably clamped with the detection sliding table through a positioning sliding shaft, and the lower end face of the support clamping plate is fixedly connected with the upper part of the detection sliding table through the spring snap ring.

[0017] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0018] 1. By setting the analysis device, when assisting in analyzing the power line loss, the servo motor can synchronously drive the second bevel gear and the guiding roller to rotate through the transmission guide shaft, so that the second bevel gear can drive the feeding device to rotate intermittently through the first bevel gear. At the same time, the guiding roller can cooperate with the intermittent wire supply of the feeding device, and then perform cyclic analysis and detection operations on the supplied power line, maximizing the detection efficiency of the equipment for the power line.

[0019] 2. By setting the feeding device, when importing and exporting the power line, the transmission device can provide intermittent rotation power for the four groups of power line guide rollers through the meshing connection with the limiting gear, so that the four groups of power line guide rollers can accurately guide the power line, improving the stability of the supply of the detected power line.

[0020] 3. By setting the guiding component, during transmission, the guiding component can synchronously supply power to the analysis device and the feeding device, and when the feeding device supplies power line, it can cooperate with the analysis device without gap, thus effectively improving the utilization efficiency of the power of the equipment and also improving the detection efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 It is a schematic diagram of the main structure of the present invention.

[0022] Figure 2 It is a side view of the main body of the present invention.

[0023] Figure 3 This is the exploded view of the guiding component of the present invention,

[0024] Figure 4 This is the structural schematic diagram of the guiding component of the present invention,

[0025] Figure 5 This is the structural schematic diagram of the analysis device of the present invention,

[0026] Figure 6 This is the side view of the analysis device of the present invention,

[0027] Figure 7 This is the exploded view of the material guiding device of the present invention,

[0028] Figure 8 This is the structural schematic diagram of the material guiding device of the present invention,

[0029] Figure 9 This is the structural schematic diagram of the transmission device of the present invention,

[0030] Figure 10 This is the structural schematic diagram of the second embodiment of the analysis device of the present invention.

[0031] In the figure: 1. guiding and limiting seat; 2. fixed guiding groove; 3. toothed belt; 4. guiding component; 5. analysis device; 6. material guiding device; 41. guiding roller; 42. first bevel gear; 43. second bevel gear; 44. driving toothed belt pulley; 45. connecting card seat; 46. first limiting chute; 47. supporting guiding groove; 48. fixed rotating groove; 49. connecting bottom plate; 410. servo motor; 411. driving guiding shaft; 412. second limiting chute; 51. guiding insertion shaft; 52. fixed shaft sleeve; 53. connecting side plate; 54. supporting clamping plate; 55. detection sliding table; 56. detection sleeve; 57. detection contact head; 58. information collector; 59. spring snap ring; 510. positioning sliding shaft; 61. power line guiding roller; 62. transmission device; 63. connecting belt; 64. supporting clamping frame; 65. guiding support; 66. positioning rotating groove; 67. fixed pulley; 68. positioning gear; 69. limiting gear; 621. clamping pulley; 622. guiding rotating shaft; 623. fixed chuck; 624. connecting tooth. Detailed implementation manners

[0032] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0033] Embodiment 1

[0034] Please refer to Figure 1-9 For this, the present invention provides a power line loss auxiliary analysis device, which includes a guiding and limiting seat 1, a fixed guide groove 2, a toothed belt 3, a guiding component 4, an analysis device 5 and a feeding device 6. The upper end face of the feeding device 6 is symmetrically provided with guiding and limiting seats 1 for limiting, and five groups of fixed guide grooves 2 are evenly and equidistantly opened on the inner end faces of the guiding and limiting seats 1. A guiding component 4 is fixedly installed near the side of the upper end face of the feeding device 6, and an analysis device 5 is slidably clamped on the upper end face of the feeding device 6 through the guiding component 4. The feeding device 6 and the guiding component 4 are meshed and connected through a toothed belt 3.

[0035] As Figure 3 and Figure 4 shown in FIGS. and, the guiding component 4 includes a guiding roller 41, a first bevel gear 42, a second bevel gear 43, a driving toothed pulley 44, a connecting socket 45, a first limiting chute 46, a supporting guide groove 47, a fixed rotating groove 48, a connecting bottom plate 49, a servo motor 410, a driving guide shaft 411 and a second limiting chute 412. A supporting guide groove 47 for limiting is opened near the center of the side end face of the connecting socket 45, and fixed rotating grooves 48 for positioning are symmetrically opened on the side end face of the connecting socket 45. A first limiting chute 46 is vertically penetrated through the center of the upper end face of the connecting socket 45. A servo motor 410 is fixedly installed at the center of the outer end face of the connecting socket 45, and a guiding roller 41 is fixedly installed on the inner end face of the connecting socket 45 opposite to the servo motor 410. Driving guide shafts 411 are symmetrically arranged on the outer end face of the guiding roller 41. Second bevel gears 43 are fixedly arranged on the outer end faces of the two driving guide shafts 411. A first bevel gear 42 is rotatably clamped on the inner end face of the fixed rotating groove 48, and a driving toothed pulley 44 is fixedly connected to the center of the rear end face of the first bevel gear 42. Two groups of second limiting chutes 412 are symmetrically opened on the side end face of the guiding roller 41. Connecting bottom plates 49 are symmetrically arranged on the lower end face of the connecting socket 45, which is convenient for subsequent rapid and stable positioning and installation, and improves the assembly efficiency.

[0036] As Figure 5 and Figure 6, the analysis device 5 includes a guiding insertion shaft 51, a fixed sleeve 52, a connecting side plate 53, a supporting clamping plate 54, a detection slide 55, a detection sleeve 56, a detection contact head 57, and an information collector 58. At the center of the lower end face of the supporting clamping plate 54, a detection slide 55 is fixedly installed, and five groups of detection sleeves 56 for positioning are evenly and equidistantly fixedly installed on the inner end face of the detection slide 55. Five groups of detection contact heads 57 are evenly and equidistantly fixedly arranged on the inner end face of the detection sleeve 56. At the center of the lower end face of the detection sleeve 56, an information collector 58 is fixedly arranged. At the top of the side end face of the supporting clamping plate 54, a connecting side plate 53 is fixedly connected. On the side end face of the connecting side plate 53 away from the supporting clamping plate 54, a fixed sleeve 52 is fixedly installed. At the bottom of the inner end face of the fixed sleeve 52, a guiding insertion shaft 51 is fixedly arranged. The fixed sleeve 52 is adapted to the guiding roller 41, and the second limiting chute 412 is adapted to the guiding insertion shaft 51. The analysis device 5 is slidably clamped on the inner end face of the fixed rotating groove 48 through the adaptation of the fixed sleeve 52 to the guiding roller 41 and the adaptation of the second limiting chute 412 to the guiding insertion shaft 51, which can improve the stability of the subsequent displacement of the analysis device 5 inside the guiding component 4 and improve the efficiency of subsequent detection.

[0037] As Figure 3 , the inner end face of the transmission toothed belt pulley 44 is meshed and connected with the second bevel gear 43 through the first bevel gear 42, which can effectively improve the stability of the transmission between devices.

[0038] As Figure 3 and Figure 5 , the connecting side plate 53 is slidably clamped with the connecting card seat 45 through the supporting guide groove 47, which can improve the stability of the sliding displacement of the analysis device 5 inside the guiding component 4.

[0039] As Figure 7 and Figure 8 , the feeding device 6 includes a power line guiding roller 61, a transmission device 62, a connecting belt 63, a supporting bracket 64, a guiding support 65, a positioning rotating groove 66, a fixed pulley 67, a positioning gear 68, and a limiting gear 69. On the upper end face of the supporting bracket 64, guiding supports 65 for positioning are symmetrically arranged. In the inner end face of the guiding support 65, a positioning rotating groove 66 for limiting is opened. Two groups of power line guiding rollers 61 are symmetrically and rotatably clamped in the inner end face of the positioning rotating groove 66. At the center of the side end face of the power line guiding roller 61, a limiting gear 69 is fixedly arranged. At the center of the side end face of the limiting gear 69, a positioning gear 68 is fixedly installed. At the center of the side end face of the positioning gear 68, a fixed pulley 67 is fixedly connected. The two fixed pulleys 67 are meshed and connected through the connecting belt 63. A transmission device 62 is rotatably clamped in the inner end face of the guiding support 65 near the upper part of the power line guiding roller 61, which is convenient for the subsequent transmission device 62 to provide intermittent power for the power line guiding roller 61 for guiding.

[0040] For example Figure 4 and Figure 8 , the lower end surface of the connection card seat 45 is fixedly connected to the upper end surface of the support card frame 64 through the connection bottom plate 49, which facilitates the subsequent rapid and stable positioning and connection of the guiding assembly 4.

[0041] For example Figure 9 , the transmission device 62 includes a clamping pulley 621, a guiding rotating shaft 622, a fixed chuck 623 and connecting teeth 624. Symmetrically arranged on the side end surface of the guiding rotating shaft 622 are fixed chucks 623 for support, and evenly and equidistantly fixedly connected to the outer end surface of the fixed chuck 623 are connecting teeth 624. Fixedly connected to the outer end surface of the guiding rotating shaft 622 near the side is a clamping pulley 621. The outer end surface of the clamping pulley 621 is meshed and connected to the outer end surface of the transmission toothed belt pulley 44 through a toothed belt 3. The outer end surface of the fixed chuck 623 is meshed and connected to the outer end surface of the limit gear 69 through the connecting teeth 624, and the upper and lower adjacent two groups of power line guide rollers 61 are meshed and connected through a positioning gear 68, which can make the four groups of power line guide rollers 61 rotate synchronously and in the same direction, effectively improving the stability of guiding the detected power line.

[0042] For example Figure 1 and Figure 6 , the detection sleeve 56 and the fixed guide groove 2 are coaxial, which facilitates the subsequent rapid guiding and positioning of the power line for detection and analysis.

[0043] Before implementation of this embodiment, before use, the user can introduce the power line to be analyzed and detected into the space between the two guiding and limiting seats 1 through the fixed guiding groove 2 inside the guiding and limiting seat 1. At this time, the power line penetrates through the analyzing device 5 and the feeding device 6, facilitating subsequent rapid analysis and detection operations on the power line. During the detection operation, the user can start the servo motor 410 through an external control device. At this time, the servo motor 410 can drive the transmission guide shaft 411 to rotate. When the transmission guide shaft 411 rotates, the side part of the transmission guide shaft 411 can drive the second bevel gear 43 to rotate. At the same time, the front part of the transmission guide shaft 411 can synchronously drive the guiding roller 41 to rotate. When the two second bevel gears 43 rotate, the second bevel gear 43 can drive the first bevel gear 42 to engage and rotate, so that the first bevel gear 42 can drive the transmission toothed belt pulley 44 on the side to rotate. At the same time, when the transmission toothed belt pulley 44 rotates, the transmission toothed belt pulley 44 can drive the clamping belt pulley 621 at the bottom to rotate through the toothed belt 3, so that the clamping belt pulley 621 can drive the external guiding rotating shaft 622 to rotate circumferentially. When the guiding rotating shaft 622 rotates, the guiding rotating shaft 622 can synchronously drive the external connecting tooth 624 to rotate through the fixed chuck 623. When the connecting tooth 624 rotates, it can intermittently drive the limiting gear 69 to engage, so that the limiting gear 69 can drive the power line guide roller 61 in the middle to rotate. At the same time, when the upper power line guide roller 61 rotates, it can synchronously drive the power line guide roller 61 at the bottom to rotate in the opposite direction through the positioning gear 68. And the power line guide roller 61 at the rear can drive the two power line guide rollers 61 at the front to rotate synchronously through the engagement of the connecting belt 63 and the fixed belt pulley 67, so that the four power line guide rollers 61 can synchronously guide the power line, improving the stability of the guiding. During the detection, the above-mentioned guiding roller 41 can be slidably limited by the second limiting chute 412 and the guiding insertion shaft 51. When the guiding roller 41 rotates, it can drive the guiding insertion shaft 51 to perform cyclic displacement through the cyclic trajectory of the second limiting chute 412. So that the guiding insertion shaft 51 can drive the connecting side plate 53 and the detection sliding table 55 to perform cyclic displacement outside the support bracket 64 through the fixed bushing 52. At the same time, the detection sliding table 55 can drive the detection sleeve 56 to slide cyclically outside the power line, so that the detection sleeve 56 and the detection contact head 57 inside the detection sliding table 55 can detect and analyze the power line. Finally, the information is exported through the information collector 58, improving the efficiency of detecting and analyzing the power line.

[0044] Embodiment 2

[0045] Based on Embodiment 1, as Figure 10As shown, the lower end surface of the support card plate 54 is slidably clamped with the detection slide 55 through the positioning slide shaft 510, and the lower end surface of the support card plate 54 is fixedly connected to the upper part of the detection slide 55 through the spring snap ring 59.

[0046] When this embodiment is implemented, the spring snap ring 59 and the positioning slide shaft 510 can provide sufficient elastic force for the detection slide 55 for support and buffering, effectively improving the stability of subsequent protection of the power line.

[0047] Working principle: Before use, the user can introduce the power line to be analyzed and detected through the fixed guide groove 2 inside the guiding and limiting seat 1 between the two groups of guiding and limiting seats 1. At this time, the power line penetrates through the analysis device 5 and the feeding device 6, facilitating subsequent rapid analysis and detection operations on the power line. During the detection operation, the user can start the servo motor 410 through an external control device. At this time, the servo motor 410 can drive the transmission guide shaft 411 to rotate. When the transmission guide shaft 411 rotates, the side part of the transmission guide shaft 411 can drive the second bevel gear 43 to rotate. At the same time, the front part of the transmission guide shaft 411 can synchronously drive the guiding roller 41 to rotate. When the above two groups of second bevel gears 43 rotate, the second bevel gear 43 can drive the first bevel gear 42 to engage and rotate, enabling the first bevel gear 42 to drive the transmission toothed belt pulley 44 on the side to rotate. At the same time, when the transmission toothed belt pulley 44 rotates, the transmission toothed belt pulley 44 can drive the clamping belt pulley 621 at the bottom through the toothed belt 3 to rotate, enabling the clamping belt pulley 621 to drive the external guiding rotating shaft 622 to rotate circumferentially. When the guiding rotating shaft 622 rotates, the guiding rotating shaft 622 can synchronously drive the external connecting tooth 624 through the fixed chuck 623 to rotate. When the connecting tooth 624 rotates, it can intermittently drive the limiting gear 69 to engage, thereby enabling the limiting gear 69 to drive the power line guide roller 61 in the middle to rotate. At the same time, when the upper power line guide roller 61 rotates, it can synchronously drive the power line guide roller 61 at the bottom to rotate in the opposite direction through the positioning gear 68. And the power line guide roller 61 at the rear can drive the two power line guide rollers 61 at the front to rotate synchronously through the engagement of the connecting belt 63 and the fixed belt pulley 67, enabling the four power line guide rollers 61 to synchronously guide the power line, improving the stability of the guiding. During the detection, the above guiding roller 41 can be slidably limited to the guiding insertion shaft 51 through the second limiting chute 412. When the guiding roller 41 rotates, it can drive the guiding insertion shaft 51 to perform a cyclic displacement through the cyclic trajectory of the second limiting chute 412. Then the guiding insertion shaft 51 can drive the connecting side plate 53 and the detection sliding table 55 to perform a cyclic displacement outside the support bracket 64 through the fixed bushing 52. At the same time, the detection sliding table 55 can drive the detection sleeve 56 to slide cyclically outside the power line, enabling the detection sleeve 56 and the detection contact head 57 inside the detection sliding table 55 to detect and analyze the power line. Finally, the information is exported through the information collector 58, improving the efficiency of detecting and analyzing the power line.

[0048] Although the embodiments of the present invention have been shown and described, for those of ordinary skill in the art, it can be understood that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An auxiliary analysis device for power line loss, comprising a guiding and limiting seat (1), a fixed guide groove (2), a toothed belt (3), a guiding component (4), an analysis device (5) and a feeding device (6), characterized in that: On the upper end face of the material guiding device (6), guiding and limiting seats (1) for limiting are symmetrically arranged, and five groups of fixed guide grooves (2) are evenly and equidistantly formed on the inner end face of the guiding and limiting seats (1). A guiding component (4) is fixedly installed near the side of the upper end face of the material guiding device (6), and an analysis device (5) is slidably clamped on the upper end face of the material guiding device (6) through the guiding component (4). The material guiding device (6) and the guiding component (4) are meshed and connected through a toothed belt (3); The guiding component (4) includes a guiding roller (41), a first bevel gear (42), a second bevel gear (43), a driving toothed belt pulley (44), a connecting seat (45), a first limiting chute (46), a supporting guide groove (47), a fixed rotating groove (48), a connecting bottom plate (49), a servo motor (410), a driving guide shaft (411) and a second limiting chute (412). A supporting guide groove (47) for limiting is formed near the center of the side end face of the connecting seat (45), and fixed rotating grooves (48) for positioning are symmetrically formed on the side end face of the connecting seat (45). A first limiting chute (46) is vertically penetrated through the center of the upper end face of the connecting seat (45). A servo motor (410) is fixedly installed at the center of the outer end face of the connecting seat (45), and a guiding roller (41) is fixedly installed on the inner end face of the connecting seat (45) opposite to the servo motor (410). Driving guide shafts (411) are symmetrically arranged on the outer end face of the guiding roller (41). Second bevel gears (43) are fixedly arranged on the outer end faces of the two driving guide shafts (411). A first bevel gear (42) is rotatably clamped on the inner end face of the fixed rotating groove (48), and a driving toothed belt pulley (44) is fixedly connected to the center of the rear end face of the first bevel gear (42). Two groups of second limiting chutes (412) are symmetrically formed on the side end face of the guiding roller (41). Connecting bottom plates (49) are symmetrically arranged on the lower end face of the connecting seat (45).

2. The auxiliary power line loss analysis device according to claim 1, characterized in that: The analysis device (5) includes a guiding insertion shaft (51), a fixed bushing (52), a connecting side plate (53), a supporting clamping plate (54), a detection slide (55), a detection sleeve (56), a detection contact head (57) and an information collector (58). At the center of the lower end face of the supporting clamping plate (54), a detection slide (55) is fixedly installed, and five groups of detection sleeves (56) for positioning are fixedly installed at equal intervals on the inner end face of the detection slide (55). Five groups of detection contact heads (57) are fixedly arranged at equal intervals on the inner end face of the detection sleeve (56). An information collector (58) is fixedly arranged at the center of the lower end face of the detection sleeve (56). A connecting side plate (53) is fixedly connected to the side end face of the supporting clamping plate (54) near the top, and a fixed bushing (52) is fixedly installed on the side end face of the connecting side plate (53) away from the supporting clamping plate (54). A guiding insertion shaft (51) is fixedly arranged at the inner end face of the fixed bushing (52) near the bottom. The fixed bushing (52) is adapted to the guiding roller (41), and the second limiting chute (412) is adapted to the guiding insertion shaft (51). The analysis device (5) is slidably clamped to the inner end face of the fixed rotating groove (48) through the adaptation of the fixed bushing (52) to the guiding roller (41) and the adaptation of the second limiting chute (412) to the guiding insertion shaft (51).

3. The auxiliary power line loss analysis device according to claim 2, characterized in that: The inner end face of the driving toothed pulley (44) is meshed and connected to the second bevel gear (43) through the first bevel gear (42).

4. An auxiliary power line loss analysis device according to claim 2, characterized in that: The connecting side plate (53) is slidably clamped to the connecting socket (45) through the supporting guide groove (47).

5. An auxiliary power line loss analysis device according to claim 2, characterized in that: The feeding device (6) includes a power line guiding roller (61), a transmission device (62), a connecting belt (63), a supporting bracket (64), a guiding support (65), a positioning rotating groove (66), a fixed pulley (67), a positioning gear (68) and a limiting gear (69). Guiding supports (65) for positioning are symmetrically arranged on the upper end face of the supporting bracket (64), and positioning rotating grooves (66) for limiting are formed on the inner end faces of the guiding supports (65). Two groups of power line guiding rollers (61) are symmetrically and rotatably clamped on the inner end faces of the positioning rotating grooves (66), and a limiting gear (69) is fixedly arranged at the center of the side end face of the power line guiding roller (61). A positioning gear (68) is fixedly installed at the center of the side end face of the limiting gear (69), and a fixed pulley (67) is fixedly connected to the center of the side end face of the positioning gear (68). The two fixed pulleys (67) are meshed and connected through a connecting belt (63). A transmission device (62) is rotatably clamped on the inner end face of the guiding support (65) near the upper part of the power line guiding roller (61).

6. The auxiliary power line loss analysis device according to claim 5, characterized in that: The lower end face of the connecting socket (45) is fixedly connected to the upper end face of the supporting bracket (64) through the connecting bottom plate (49).

7. An auxiliary power line loss analysis device according to claim 5, characterized in that: The transmission device (62) includes a clamping pulley (621), a guiding rotating shaft (622), a fixed chuck (623) and connecting teeth (624). Fixed chucks (623) for support are symmetrically arranged on the side end face of the guiding rotating shaft (622), and connecting teeth (624) are fixedly connected to the outer end face of the fixed chuck (623) evenly and equidistantly. A clamping pulley (621) is fixedly connected to the outer end face of the guiding rotating shaft (622) near the side part. The outer end face of the clamping pulley (621) is meshed and connected with the outer end face of the transmission toothed belt pulley (44) through the toothed belt (3). The outer end face of the fixed chuck (623) is meshed and connected with the outer end face of the limit gear (69) through the connecting teeth (624), and the upper and lower adjacent two groups of the power line guide rollers (61) are meshed and connected through the positioning gear (68).

8. An auxiliary power line loss analysis device according to claim 6, characterized in that: The detection sleeve (56) and the fixed guide groove (2) are coaxial.

9. An auxiliary power line loss analysis device according to claim 6, characterized in that: The lower end face of the support clamping plate (54) is slidably clamped with the detection sliding table (55) through a positioning sliding shaft (510), and the lower end face of the support clamping plate (54) is fixedly connected with the upper part of the detection sliding table (55) through a spring snap ring (59).

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