CN107310965B - Rail type sliding contact power supply device - Google Patents
Rail type sliding contact power supply device Download PDFInfo
- Publication number
- CN107310965B CN107310965B CN201710648540.4A CN201710648540A CN107310965B CN 107310965 B CN107310965 B CN 107310965B CN 201710648540 A CN201710648540 A CN 201710648540A CN 107310965 B CN107310965 B CN 107310965B
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- Prior art keywords
- pulley
- rail
- carbon brush
- pair
- seat
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B65—CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
- B65H—HANDLING THIN OR FILAMENTARY MATERIAL, e.g. SHEETS, WEBS, CABLES
- B65H45/00—Folding thin material
- B65H45/02—Folding limp material without application of pressure to define or form crease lines
- B65H45/06—Folding webs
- B65H45/10—Folding webs transversely
- B65H45/101—Folding webs transversely in combination with laying, i.e. forming a zig-zag pile
- B65H45/103—Folding webs transversely in combination with laying, i.e. forming a zig-zag pile by a carriage which reciprocates above the laying station
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B65—CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
- B65H—HANDLING THIN OR FILAMENTARY MATERIAL, e.g. SHEETS, WEBS, CABLES
- B65H47/00—Unfolding thin limp material
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- H—ELECTRICITY
- H01—ELECTRIC ELEMENTS
- H01R—ELECTRICALLY-CONDUCTIVE CONNECTIONS; STRUCTURAL ASSOCIATIONS OF A PLURALITY OF MUTUALLY-INSULATED ELECTRICAL CONNECTING ELEMENTS; COUPLING DEVICES; CURRENT COLLECTORS
- H01R13/00—Details of coupling devices of the kinds covered by groups H01R12/70 or H01R24/00 - H01R33/00
- H01R13/46—Bases; Cases
- H01R13/502—Bases; Cases composed of different pieces
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- H—ELECTRICITY
- H01—ELECTRIC ELEMENTS
- H01R—ELECTRICALLY-CONDUCTIVE CONNECTIONS; STRUCTURAL ASSOCIATIONS OF A PLURALITY OF MUTUALLY-INSULATED ELECTRICAL CONNECTING ELEMENTS; COUPLING DEVICES; CURRENT COLLECTORS
- H01R25/00—Coupling parts adapted for simultaneous co-operation with two or more identical counterparts, e.g. for distributing energy to two or more circuits
- H01R25/14—Rails or bus-bars constructed so that the counterparts can be connected thereto at any point along their length
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- H—ELECTRICITY
- H01—ELECTRIC ELEMENTS
- H01R—ELECTRICALLY-CONDUCTIVE CONNECTIONS; STRUCTURAL ASSOCIATIONS OF A PLURALITY OF MUTUALLY-INSULATED ELECTRICAL CONNECTING ELEMENTS; COUPLING DEVICES; CURRENT COLLECTORS
- H01R25/00—Coupling parts adapted for simultaneous co-operation with two or more identical counterparts, e.g. for distributing energy to two or more circuits
- H01R25/14—Rails or bus-bars constructed so that the counterparts can be connected thereto at any point along their length
- H01R25/142—Their counterparts
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- Current-Collector Devices For Electrically Propelled Vehicles (AREA)
Abstract
A rail-mounted sliding contact power supply device comprises a hanger seat, a pair of hanger clamping feet and a pair of lifting rod clamping feet, wherein the hanger seat is fixed with a frame of a spreading machine or an electronic and electrical product test production line; a pulley guide rail supported on the pair of hanger clamping legs; the conductive rail insulation fixing seats are multiple in number and are embedded and fixed with the top wall of the pulley guide rail cavity in the pulley guide rail cavity; the two or three conductor rails are embedded and fixed with one downward side of the conductor rail insulation fixing seat; the feed pulley mechanism is arranged in the pulley guide rail cavity and is matched with the conductive rail; the pulley guide rail lengthening connecting mechanism is connected between two adjacent pulley guide rails at the head and the tail; and the power supply wiring mechanism corresponds to the lower part of the pulley guide rail, and the feed pulley mechanism is fixed with the power supply wiring mechanism and is connected with the power supply wiring mechanism. The power line is protected, and electric leakage and even accidents are prevented; the electrical connection is reliable; the interference between the power line and nearby objects is avoided, and the self-winding of the power line is avoided.
Description
Technical Field
The invention belongs to the technical field of feed devices, and particularly relates to a rail type sliding contact power supply device.
Background
The above-mentioned rail-type sliding contact power supply device is mainly used for a cloth spreading machine, but can also be used for an electronic and electrical product testing production line and the like. The aforementioned spreading machines such as CN103991750B (cloth pressing device of spreading machine), CN104003231B (edge peeling and fixing device of spreading machine), and CN105887461A (cloth cutting device of spreading machine), etc.; the aforementioned cloth spreading machines are, for example, CN102633155A (a cloth pressing device of the cloth spreading machine), CN102642743A (a slide rail structure for a cloth spreading roller of the cloth spreading machine), and CN102633157A (a cloth spreading roller structure of a cloth spreading mechanism of the cloth spreading machine), etc.
Taking a cloth paving machine as an example, the cloth paving machine is used for flattening rolled cloth and folding the rolled cloth into a plurality of layers, a cloth paving trolley of a travelling mechanism is driven to reciprocate on a cloth paving workbench by a driving motor fixedly arranged on the cloth paving machine, and a power wire of the driving motor also reciprocates along with the cloth paving trolley during the reciprocating traveling. Therefore, the length of the power line is quite long because the length of the power line needs to be matched with the traveling stroke of the cloth spreading trolley. At present, the power cord of the driving motor, i.e. the power cord electrically connected with the driving motor, is usually placed on the ground without regulation, so that the following technical problems exist: first, since the power cord is freely placed on the ground and is frequently dragged along with the reciprocating motion of the driving motor, it is easily damaged and causes electric leakage, causing an undesirable but difficult to stop ground fault; secondly, the electric connection part of the power line and the driving motor is easy to loosen, so that regular or irregular maintenance is needed, and the daily working intensity of electric maintenance personnel is increased; thirdly, the power line is easy to interfere with nearby objects due to lack of effective shielding and reasonable control.
The applicant searches documents and retrieves 'a power line suspension walking device of a cloth paving machine' recommended by Chinese patent authorization publication No. CN204668894U, and the patent scheme is established by the following steps: the power line is hung on the plurality of hanging parts in a multi-section manner, and when the cloth paving machine walks in a reciprocating manner, the power line can pull the hanging parts to walk on the walking track; when the cloth spreading machine works or does not work, the power lines are orderly hung on the edges of the cloth spreading platform, so that the power lines are prevented from being damaged (see paragraph 0014 in the specification specifically). However, since the length of the power line cannot be shortened, the patent has the disadvantage of addressing symptoms rather than addressing the root causes.
Disclosure of Invention
The invention aims to provide a rail-type sliding contact power supply device which is beneficial to avoiding dragging friction between a power line and a terrace, playing an ideal protection role on the power line, preventing electric leakage and even causing accidents, ensuring the electrical connection reliability of the power line, avoiding the loosening situation in the use process, and obviously shortening the length of the flexible power line so as to avoid the interference phenomenon between the power line and nearby objects.
The task of the invention is completed in such a way that the rail type sliding contact power supply device comprises a hanger seat, a lifting rod and a power supply device, wherein the hanger seat is fixed with a frame of a spreading machine or an electronic and electrical product testing production line in a use state; a pulley rail supported on the pair of hanger pins at a position corresponding to a hanger pin cavity of the pair of hanger pins; the conductive rail insulation fixing seats are distributed in a plurality at intervals along the length direction of the pulley guide rail and are fixedly embedded with the top wall of the pulley guide rail cavity in the pulley guide rail cavity of the pulley guide rail; two or three conductive rails are arranged and are fixedly embedded with the downward side of the conductive rail insulation fixing seat; the feed pulley mechanism is arranged in the pulley guide rail cavity under the condition that the feed pulley mechanism and the pulley guide rail cavity form a rolling pair and is in sliding fit with the conductive rail; the pulley guide rail lengthening and connecting mechanism is connected between two adjacent pulley guide rails at the head and the tail; and the power supply wiring mechanism corresponds to the lower part of the pulley guide rail, and the feed pulley mechanism is fixed with the power supply wiring mechanism and is electrically connected with the power supply wiring mechanism.
In a specific embodiment of the invention, the hanger base is in an L shape, the upper parts of the pair of hanger clamping feet are bent oppositely to form hanger clamping foot connecting arms respectively, the lower parts of the pair of hanger clamping feet are also bent oppositely to form pulley guide rail supporting arms respectively, the pair of hanger clamping foot connecting arms are overlapped with each other and are in threaded fit with the hanger rod through a pair of hanger clamping foot connecting arm locking nuts, and the space between the pair of pulley guide rail supporting arms is formed into a pulley guide rail extending out of the abdicating cavity; the pulley guide rail and the pulley guide rail lengthening connecting mechanism are supported on the pair of pulley guide rail supporting arms, a conductor rail fixing embedded groove is formed in one side, facing the conductor rail, of the conductor rail insulating fixing seat, the conductor rail is embedded and fixed with the conductor rail embedded groove, and the feed pulley mechanism is fixed with the power supply wiring mechanism at a position corresponding to the position, extending out of the yielding cavity, of the pulley guide rail.
In another specific embodiment of the present invention, a pair of pulley roller raceways are formed at a lower portion of the pulley rail in the longitudinal direction, opposite sides of the pulley roller raceways in the longitudinal direction are folded downward to form a pair of guide roller flanges, a space between the pair of guide roller flanges is formed as a guide roller groove, and the feeding pulley mechanism slidably engaged with the conductive rail fitted in the conductive rail fixing insertion groove of the conductive rail insulating holder forms a rolling pair with the pair of pulley roller raceways and the guide roller groove and is fixed to the power connection mechanism in a state of protruding out of the guide roller groove.
In still another embodiment of the present invention, the feeding pulley mechanism includes a carbon brush holder, a pair of pulley first rollers, a pair of pulley second rollers, a first guide roller, a second guide roller, a carbon brush, and a carbon brush guide holder, the carbon brush holder is molded from plastic, a cover fixing post extends at a central position of a downward facing side of the carbon brush holder and a first roller holder is formed at one end of the carbon brush holder, a second roller holder is formed at the other end of the carbon brush holder, the pair of pulley first rollers are rotatably disposed at both sides of the first roller holder through pulley first roller shafts respectively in a state of corresponding to each other, the pair of pulley second rollers are rotatably disposed at both sides of the second roller holder through pulley second roller shafts respectively in a state of corresponding to each other, the first guide rollers are rotatably disposed on the first guide roller shafts, the upper part of the first guide roller shaft is supported in the middle of the downward side of the first roller seat, the lower end of the first guide roller shaft is supported on the power supply wiring mechanism, the second guide roller is rotationally arranged on the second guide roller shaft, the upper end of the second guide roller shaft is supported in the middle of the downward side of the second roller seat, the lower end of the second guide roller shaft is also supported on the power supply wiring mechanism, the carbon brush guide seat is molded by plastics, the carbon brush guide seat is fixed with the upward side of the carbon brush fixing seat at the position corresponding to the position between the first roller seat and the second roller seat, a carbon brush frame sliding cavity is formed at the side of the carbon brush guide seat facing the carbon brush fixing seat, carbon brush sliding grooves with the same number as that of carbon brushes are arranged at intervals in the upper part of the carbon brush guide seat and at the position corresponding to the carbon brushes, the carbon brushes correspond to the carbon brush sliding grooves and are in sliding fit with the carbon brush sliding grooves, the upper surface of the carbon brush is in sliding fit with the conductive rail, the lower part of the carbon brush is inserted into a sliding cavity of the carbon brush frame and is fixed with one upward side of the carbon brush base plate, one downward side of the carbon brush base plate is supported on the carbon brush base plate in a floating state through a pair of carbon brush base plate supporting springs, a carbon brush feed power line is fixed in the middle of the downward side of the carbon brush, the carbon brush feed power line sequentially passes through a carbon brush base plate power line abdicating hole formed in the carbon brush base plate and a cover fixing column power line through hole of the cover fixing column, extends towards the power supply wiring mechanism and is electrically connected with the power supply wiring mechanism, one pulley first roller of the pair of pulley first rollers and one pulley second roller of the pair of pulley second rollers and one pulley roller path of the pair of pulley roller paths form a rolling pair, the other pulley second roller of the pair of pulley first rollers and the other pulley second roller of the pair of pulley second rollers and the other pulley sliding roller path of the pair of pulley first rollers form a rolling pair, and the first guide roller and the second guide roller are positioned at the same time corresponding to the rolling pair roller path of the other pulley first guide roller path and the other guide roller path.
In yet another specific embodiment of the present invention, when the number of the conductive rail is two, the number of the carbon brush sliding grooves formed in the carbon brush guide base is two, and the number of the carbon brushes is two, and when the number of the conductive rail is three, the number of the carbon brush sliding grooves is three, and the number of the carbon brushes is three; a spring seat is formed on the carbon brush holder base at a position corresponding to the carbon brush holder plate support spring, and the carbon brush holder plate support spring is supported by the spring seat.
In yet another embodiment of the present invention, the power connection mechanism comprises a wire holder housing, a wire holder housing cover plate, a power line wire holder, a carbon brush feed power line electrical connector and a power lead-out wire, wherein the wire holder housing is formed with a wire holder cavity, a power lead-out wire abdicating hole is formed at the central position of the cavity bottom wall of the wire holder cavity, the wire holder housing cover plate is fixed with the wire holder housing at the position corresponding to the upper opening part of the wire holder housing, a housing first cover plate lug extends from one side of the wire holder housing cover plate facing the first roller holder, a housing second cover plate lug extends from one side of the second roller holder, a housing mating hole is formed at the middle part of the wire holder housing cover plate and at the position corresponding to the housing fixing column, and the power line wire holder is molded by plastic, the power line connection base and the connection base housing cover plate are fixed towards one side of the connection base cavity, a carbon brush feed power line cavity is formed in the center of the power line connection base, carbon brush feed power line passing holes which are equal to the carbon brush feed power lines in number are formed in the positions corresponding to the carbon brush feed power lines, the carbon brush feed power line passing holes are communicated with the carbon brush feed power line cavity, electric connection sheet cavities which are equal to the carbon brush feed power lines in number are formed in the lower portion of the power line connection base, the electric connection sheet cavities are communicated with the carbon brush feed power line cavities, adjacent electric connection sheet cavities are separated in an insulating mode through electric connection sheet cavity separation walls, the number of the carbon brush feed power line electric connection sheets is equal to the number of the carbon brush feed power lines, the carbon brush feed power line electric connection sheets are fixed with the electric connection sheet cavities in the positions corresponding to the electric connection sheet cavities and extend into the carbon brush feed power line cavities, the number of the power supply lead-out wires is equal to that of the carbon brush feed power line electric connecting sheets, one end of each power supply lead-out wire is fixedly connected with the carbon brush feed power line electric connecting sheet, and the other end of each power supply lead-out wire is led out from the power supply lead-out wire abdicating hole and is electrically connected with a cloth spreading machine or a driving motor of an electronic and electrical product test production line; the carbon brush feed power line is led out of the cover fixed column power line through hole, then led into the carbon brush feed power line cavity through the carbon brush feed power line threading hole, and electrically and fixedly connected with the carbon brush feed power line electric connecting sheet through a carbon brush feed power line end fixing screw at a position corresponding to a feed power line end fixing screw hole formed on the carbon brush feed power line electric connecting sheet; the cover cap fixing column is fixedly inserted into the cover cap fixing column matching hole at a position corresponding to the cover cap fixing column matching hole; the lower end of the first guide roller shaft is supported on the first cover plate lug of the housing, and the lower end of the second guide roller shaft is supported on the second cover plate lug of the housing.
In a more specific embodiment of the present invention, a first power line clamping piece is fixed at the bottom of the wire holder housing, a second power line clamping piece is connected to a side corresponding to the first power line clamping piece, and the first power line clamping piece and the second power line clamping piece respectively correspond to two sides of the power lead-out wire abdicating hole in a mutually matched state; a housing cover plate fixing screw hole is formed in the middle of one side of the upper part of the housing of the wire holder, a housing cover plate fixing screw is arranged on the housing cover plate fixing screw hole in a matching mode, a housing cover plate embedded pin is formed in the other side of the upper part of the housing of the wire holder, a housing cover plate screw hole is formed in the middle of one side of the housing cover plate of the wire holder and in the position corresponding to the housing cover plate fixing screw hole, the housing cover plate fixing screw is screwed into the housing cover plate screw hole, a housing cover plate embedded pin groove is formed in the middle of the other side of the housing cover plate of the wire holder and in the position corresponding to the housing cover plate embedded pin, and the housing cover plate embedded pin is embedded into the housing cover plate embedded pin groove; a first lifting ring is arranged on the first cover plate lug of the housing, and a second lifting ring is arranged on the second cover plate lug of the housing; a wire holder fixing lug extends from each of two corresponding sides of the upper part of the power wire holder, a fixing lug screw is arranged on the wire holder fixing lug in a matching way, and the fixing lug screw is fixed with the cover plate of the wire holder housing; the power supply lead-out wire led out from the power supply lead-out wire abdicating hole is electrically connected with a driving motor of a cloth spreading machine or an electronic and electrical product testing production line after passing through the space between the first clamping piece and the second clamping piece of the power supply wire.
In a further specific embodiment of the invention, the connection mechanism for lengthening the pulley guide rail comprises a first side connection piece of the pulley guide rail, a second side connection piece of the pulley guide rail, a connection piece cover plate of the pulley guide rail, an insulation embedded seat of a connection joint of the pulley guide rail and a connection joint of the pulley guide rail, wherein the first side connection piece of the pulley guide rail is inserted and embedded with two adjacent pulley guide rails at a position corresponding to the end part of one side of the two adjacent pulley guide rails from head to tail, the second side connection piece of the pulley guide rail is inserted and embedded with two adjacent pulley guide rails at a position corresponding to the end part of the other side of the two adjacent pulley guide rails from head to tail, the connection piece cover plate of the pulley guide rail is simultaneously inserted and embedded between the first side connection piece and the second side connection piece of the pulley guide rail at a position corresponding to the upward facing the first side connection piece of the pulley guide rail and the second side connection piece of the pulley guide rail, the insulation embedded seat of the connection joint of the pulley guide rail is fixed with the downward facing side of the connection piece of the pulley guide rail through an insulation embedded seat of the pulley guide rail, the pulley guide rail is provided with a number of pulley guide rail and the two adjacent connection joints of the connection joints, and the two adjacent pulley guide rail connection joints are matched with the number of the connection joints of the connection joint of the pulley guide rail, and the two adjacent pulley guide rail.
In yet another specific embodiment of the present invention, a first side connecting piece caulking groove of the pulley guide rail is formed in each of an upper portion and a lower portion of a side of the pulley guide rail facing the first side connecting piece of the pulley guide rail, the upper portion and the lower portion of the first side connecting piece of the pulley guide rail are fitted in the first side connecting piece caulking groove of the pulley guide rail and a first side connecting piece caulking pin is extended in a lower portion in a length direction of the first side connecting piece of the pulley guide rail, the first side connecting piece caulking pin is fitted in a hemming groove of a first caulking pin fitting hem formed in the lower portion in the side of the pulley guide rail facing the first side connecting piece of the pulley guide rail, a first side connecting piece caulking pin cavity is formed in a middle portion in the length direction of the first side connecting piece caulking pin, and a first side connecting piece caulking pin stopper flange is formed at an end portion of the first caulking pin fitting hem and at a position corresponding to the first side connecting piece caulking pin cavity, the first side connecting piece caulking pin stopper flange corresponding to the first side connecting piece caulking pin cavity; the upper part and the lower part of one side of the pulley guide rail, which faces the second side connecting piece of the pulley guide rail, are respectively provided with a sliding guide rail second side connecting piece caulking groove, the upper part and the lower part of the second side connecting piece of the pulley guide rail are in embedded fit with the second side connecting piece caulking groove of the pulley guide rail, a second side connecting piece caulking pin is folded and unfolded at the lower part of the length direction of the second side connecting piece of the pulley guide rail, the second side connecting piece caulking pin is in embedded fit with a second caulking pin embedding flanging groove formed at the lower part of one side of the pulley guide rail, which faces the second side connecting piece of the pulley guide rail, a second side connecting piece caulking pin cavity is formed in the middle part of the length direction of the second side connecting piece caulking pin, a second side connecting piece caulking pin stopping flange is formed at the end part of the second caulking pin embedding flanging and at the position corresponding to the second side connecting piece caulking pin cavity, and the second side connecting piece caulking pin stopping flange corresponds to the second side connecting piece caulking pin cavity.
In yet another specific embodiment of the present invention, a pair of first engaging recesses are formed in the first side connecting piece of the pulley rail, a pair of second engaging recesses are formed in the second side connecting piece of the pulley rail, a pair of first engaging flanges of the pulley rail connecting piece cover plate are formed at a side of the pulley rail connecting piece cover plate facing the first side connecting piece of the pulley rail and at positions corresponding to the pair of first engaging recesses, a pair of second engaging flanges of the pulley rail connecting piece cover plate are formed at a side of the pulley rail connecting piece cover plate facing the first side connecting piece of the pulley rail and at positions corresponding to the pair of second engaging recesses, the pair of first engaging flanges of the pulley rail connecting piece cover plate are engaged with the pair of first engaging recesses, and the pair of second engaging flanges of the pulley rail connecting piece cover plate are engaged with the pair of second engaging recesses.
One of the technical effects of the technical scheme provided by the invention is that the pulley guide rail is adopted, the conductive rail and the feed pulley mechanism in sliding fit with the conductive rail are arranged in the pulley guide rail cavity of the pulley guide rail, and the feed pulley mechanism is fixedly connected with the power wiring mechanism, so that the power line is favorably prevented from dragging friction with a terrace to achieve an ideal protection effect on the power line, and electric leakage and even accidents are prevented; secondly, as the power feeding is realized through the dynamic power feeding pulley mechanism and the static conductive rail, the electric connection reliability of the power line is favorably ensured, and the loosening condition is avoided in the using process; thirdly, because of adopting the feeding pulley mechanism, the length of the flexible power line is obviously shortened, the interference phenomenon between the power line and nearby objects is avoided, and the self-winding of the power line is avoided.
Drawings
FIG. 1 is a schematic diagram of an embodiment of the present invention.
Fig. 2 is a detailed structural view of the feeding pulley mechanism and the power connection mechanism shown in fig. 1.
Fig. 3 is a detailed structural view of the trolley rail extension connecting mechanism shown in fig. 1.
Detailed Description
In order to make the technical spirit and advantages of the present invention more clearly understood, the applicant below describes in detail by way of example, but the description of the example is not intended to limit the technical scope of the present invention, and any equivalent changes made according to the inventive concept, which are merely in form and are not essential, should be considered as the technical scope of the present invention.
In the following description, all the concepts related to the directions or orientations of up, down, left, right, front and rear are, except for others, in the position state shown in fig. 1, and thus should not be understood as particularly limiting the technical solution provided by the present invention. For example: the position shown in figure 3 is exactly the opposite of the position shown in figure 1 and is intended to facilitate and clearly show the structure of the trolley rail extension connection 6.
Example 1:
referring to fig. 1 in combination with fig. 3, a hanger bracket 1 is shown, the hanger bracket 1 is fixed with a frame 8 of a spreading machine, more precisely, with a spreading work table foot of the frame 8 of the spreading machine, by a hanger bracket fixing screw 12 in a use state, if the present invention is applied to an electrical and electronic product testing production line, the hanger bracket 1 is fixed with the test work table foot of the frame 8 of the electrical and electronic product testing production line by the hanger bracket fixing screw 12. A boom 11 is disposed on the hanger bracket 1 through a pair of boom adjusting nuts 112, and a pair of hanger pins 111 disposed to face each other are fixed to the lower end of the boom 11; a trolley rail 2 is shown, which trolley rail 2 is supported on a pair of hanger clamp feet 111 at a position corresponding to a hanger clamp foot cavity 1111 of the pair of hanger clamp feet 111; a plurality of conductive rail insulation fixing seats 3 (shown in fig. 3) made of plastic or ceramic are shown, wherein the conductive rail insulation fixing seats 3 are distributed at intervals along the length direction of the pulley guide rail 2 and are fixedly embedded with the top wall of the pulley guide cavity 21 in the pulley guide cavity 21 of the pulley guide rail 2; the conductor rails 4 are shown, three conductor rails 4 are arranged, and the conductor rails 4 are fixedly embedded with the downward side of the conductor rail insulating fixed seat 3; a power feeding pulley mechanism 5 is shown, which power feeding pulley mechanism 5 is arranged in the pulley guide rail cavity 21 and is in sliding fit with the conductor rail 4 in a state of forming a rolling pair with the pulley guide rail cavity 21; a pulley guide rail lengthening connecting mechanism 6 is shown, and the pulley guide rail lengthening connecting mechanism 6 is connected between two adjacent pulley guide rails 2 from head to tail; a power supply wiring mechanism 7 is shown, which power supply wiring mechanism 7 corresponds to the lower side of the aforementioned trolley guide rail 2, to which power supply wiring mechanism 7 the aforementioned feed trolley mechanism 5 is fixed and which is electrically connected to the power supply wiring mechanism 7.
As explained above by the applicant in combination with the common general knowledge: the number of the hanger holders 1 is a group distributed at intervals, the number of the hanger rods 11 is equal to the number of the hanger holders 1, and in the same way, the number of the pair of hanger clamping legs 111 is equal to the number of the hanger rods 11. The longer the length of the trolley guide 2, the greater the number of the aforementioned hanger brackets 1, and the total length of the trolley guide 2 depends on the length of the work table of the spreader or on the length of the test work table of the electrical and electronic product test line. In addition, since the length of the pulley rail 2 itself is limited, the two adjacent pulley rails 2 end to end need to be connected end to end by means of the pulley rail lengthening connection mechanism 6, and the conductor rail 4 is the same as that in the following (also described below).
Continuing to refer to fig. 1, the hanger base 1 is L-shaped, the upper portions of the pair of hanger clamping legs 111 are bent toward each other to form a hanger clamping leg connecting arm 1112, the lower portions are also bent toward each other to form a pulley rail supporting arm 1113, the pair of hanger clamping leg connecting arms 1112 are overlapped with each other and are threadedly engaged with the hanger rod 11 through a pair of hanger clamping leg connecting arm locking nuts 1114, and a space between the pair of pulley rail supporting arms 1113 is formed as a pulley rail protruding yielding cavity 1115; the pulley rail 2 and the pulley rail extension connecting mechanism 6 are supported by the pair of pulley rail support arms 1113, a conductor rail fixing caulking groove 31 is formed on a side of the conductor rail insulating holder 3 facing the conductor rail 4, that is, on a side facing downward, the conductor rail 4 is caulked with the conductor rail caulking groove 31, and the power feeding pulley mechanism 5 is fixed to the power line mechanism 7 at a position corresponding to the pulley rail protruding out of the escape cavity 1115. Since this embodiment is suitable for a three-phase power supply, there are three conductor rails 4.
As shown in fig. 1, a pair of pulley roller raceways 22 are formed at a lower portion of the pulley rail 2 in the longitudinal direction and in the pulley rail cavity 21, a pair of guide roller flanges 221 are formed by folding down the lengthwise opposite sides of the pulley roller raceways 22, a space between the guide roller flanges 221 is formed as a guide roller groove 2211, and the feeding pulley mechanism 5 slidably engaged with the conductor rail 4 fitted in the conductor rail fixing fitting groove 31 of the conductor rail insulating holder 3 forms a rolling pair together with the pulley roller raceways 22 and the guide roller groove 2211 and is fixed to the power connection mechanism 7 in a state of protruding out of the guide roller groove 2211.
Referring to fig. 2 in conjunction with fig. 1, a preferred, but not absolutely limited, structure of the aforementioned feed trolley mechanism 5 is as follows: comprises a carbon brush fixed seat 51, a pair of first pulley rollers 52, a pair of second pulley rollers 53, a first guide roller 54, a second guide roller 55, a carbon brush 56 and a carbon brush guide seat 57, wherein the carbon brush fixed seat 51 is molded by plastic, a hollow cover fixed column 511 extends at the central position of the downward side of the carbon brush fixed seat 51, a first roller seat 512 is formed at one end (the left end of the position state shown in figure 2) of the carbon brush fixed seat 51, a second roller seat 513 is formed at the other end (the right end of the position state shown in figure 2), the pair of first pulley rollers 52 are respectively and rotatably arranged at the two sides (the front side and the rear side of the position state shown in figure 2) of the first roller seat 512 through a first pulley shaft 521 in a mutually corresponding state, a pair of second pulleys 53 are rotatably provided on both sides (front and rear sides in the position shown in fig. 2) of the second roller mount 513 via second pulley shafts 531, respectively, first guide rollers 54 are rotatably provided on first guide roller shafts (not shown) whose upper portions are supported on the middle portion of the side facing downward of the first roller mount 512 where the first guide roller shaft support seats are formed, lower ends of the first guide roller shafts are supported on the aforementioned power supply connection mechanism 7, second guide rollers 55 are rotatably provided on second guide roller shafts 551 whose upper ends are supported on the middle portion of the side facing downward of the second roller mount 513 where the second guide roller shaft support seats are formed, lower ends of the second guide roller shafts 551 are also supported on the aforementioned power supply connection mechanism 7, the carbon brush guide seats 57 are molded from plastic, the carbon brush holder 57 is fixed to the upward side of the carbon brush holder 51 by the carbon brush holder fixing screws 573 at a position corresponding to the position between the first roller holder 512 and the second roller holder 513, a carbon brush holder sliding cavity 571 is formed at a side of the carbon brush holder 57 facing the carbon brush holder 51, carbon brush sliding grooves 572 (three in this embodiment) equal to the number (three in this embodiment) of the carbon brushes 56 are formed at intervals at a position corresponding to the carbon brushes 56 at an upper portion of the carbon brush holder 57, the carbon brushes 56 correspond to the carbon brush sliding grooves 572 and are slidably engaged with the carbon brush sliding grooves 572, an upper surface of the carbon brushes 56 is slidably engaged with the conductive rail 4 (i.e., a sliding pair is formed), a lower portion of the carbon brushes 56 protrudes into the carbon brush holder sliding cavity 571 and is fixed to the upward side of the carbon brush holder 561, a downward side of the carbon brush holder 561 is supported by the carbon brush holder plate supporting springs 5611 in a floating state on the carbon brush holder 51, a carbon brush power supply line 562 is fixed in the middle of the side of the carbon brush facing downward, the carbon brush power supply line 562 sequentially passes through a carbon brush holder plate power supply line abdicating hole 5612 formed in the carbon brush holder plate 561 and a cover fixed column power supply line through hole 5111 of the cover fixed column 511 to extend toward the power supply wiring mechanism 7 and electrically connect with the power supply wiring mechanism 7, one of the pair of pulley first rollers 52 and one of the pair of pulley second rollers 53 and one of the pair of pulley roller raceways 22 form a rolling pair, and the other of the pair of pulley first rollers 52 and the other of the pair of pulley second rollers 53 and the other of the pair of pulley roller raceways 22 form a rolling pair The slide roller raceway constitutes a rolling pair, and the first guide roller 54 and the second guide roller 55 constitute a rolling pair together with the pair of guide roller folds 221 at positions corresponding to the guide roller grooves 2211.
As shown in fig. 2, a spring seat cavity 515 is formed in the carbon brush holder 51 at a position corresponding to the carbon brush holder plate support spring 5611, and the carbon brush holder plate support spring 5611 is supported in the spring seat cavity 515; the first guide roller 54 and the second guide roller 55 are two each stacked on top of each other.
Since this embodiment is applied to a three-phase power supply (applied to a spreader), the number of the conductive rail 4 is three, the number of the carbon brush sliding grooves 572 is three, and the number of the carbon brushes 56 is three. Fig. 1 shows a spring seat 514 formed in the spring seat cavity 515 of the carbon brush holder 51 at a position corresponding to the carbon brush seat support spring 5611, and the carbon brush seat support spring 5611 is supported by the spring seat 514.
Continuing to refer to fig. 2 in conjunction with fig. 1, the aforementioned power connection mechanism 7 includes a wire holder housing 71, a wire holder housing cover plate 72, a power wire holder 73, a carbon brush feed power wire connector 74 and a power lead-out wire 75, the wire holder housing 71 is formed with a wire holder cavity 711, a power lead-out wire relief hole 7111 (also called a power lead-out hole) is formed at a central position of a cavity bottom wall of the wire holder cavity 711, the wire holder housing cover plate 72 is fixed to the wire holder housing 71 at a position corresponding to an upper opening of the wire holder housing 71, a housing first cover plate ear 721 extends from the wire holder housing cover plate 72 toward the first roller holder 512 (left side in the state shown in fig. 2), and a housing second cover plate ear 722 extends toward the second roller holder 513 (right side in the state shown in fig. 2), a cover fixing post mating hole 723 is formed in the middle of the wire holder cover plate 72 and at a position corresponding to the cover fixing post 511, the power wire holder 73 is molded by plastic, the power wire holder 73 and the wire holder cover plate 72 are fixed to one side of the wire holder cavity 711, a carbon brush feed power wire cavity 731 is formed in the center of the power wire holder 73, carbon brush feed power wire passing holes 732 are formed in positions corresponding to the carbon brush feed power wires 562, the number of the carbon brush feed power wire passing holes 732 is equal to that of the carbon brush feed power wires 562, the carbon brush feed power wire passing holes 732 are communicated with the carbon brush feed power wire cavity 731, electrical connector cavities 733 (three) are formed in the lower portion of the power wire holder 73, the number of the electrical connector cavities 733 is equal to that of the carbon brush feed power wires 562, the electrical connector cavities 733 are communicated with the carbon brush feed power wire cavity 731, and the electrical connector cavities 733 are isolated and separated by electrical connector cavities 7331 The number of the carbon brush feed power line electric connection sheets 74 is equal to the number of the carbon brush feed power lines 562 (three in this embodiment), the carbon brush feed power line electric connection sheets 74 are fixed to the electric connection sheet cavity 733 at positions corresponding to the electric connection sheet cavity 733 and extend into the carbon brush feed power line cavity 731, the number of the power lead-out wires 75 is equal to the number of the carbon brush feed power line electric connection sheets 74 (three in this embodiment), one end of each power lead-out wire 75 is fixedly connected to the carbon brush feed power line electric connection sheet 74 through a power lead-out wire fixing screw 751, and the other end of each power lead-out wire is led out from the power lead-out wire abdicating hole 7111 and electrically connected to a driving motor (not shown in the figure) of a cloth spreading machine or an electronic and electrical product testing production line.
Continuing to refer to fig. 2 in conjunction with fig. 1, after leading out of the cover fixing post power line through hole 5111, the carbon brush power feed power line 562 leads into the carbon brush power feed power line cavity 731 through the carbon brush power feed power line threading hole 732 and is electrically and fixedly connected to the carbon brush power feed power line electrical connection piece 74 through the carbon brush power feed power line end fixing screw 5621 at a position corresponding to the power feed power line end fixing screw hole 741 provided in the carbon brush power feed power line electrical connection piece 74; the aforementioned cover fixing post 511 is inserted into the cover fixing post mating hole 723 at a position corresponding to the aforementioned cover fixing post mating hole 723; the lower end of the first guide roller shaft is supported by the first cover plate lug 721 of the housing, and the lower end of the second guide roller shaft 551 is supported by the second cover plate lug 722 of the housing, and specifically, a roller shaft screw is fixed to each of positions corresponding to the first guide roller shaft 551 and the second guide roller shaft 551 on the downward side of the first cover plate lug 721 and the second cover plate lug 722, and the roller shaft screw is fixed to the center position of the lower end surface of the first guide roller shaft 551 and the second guide roller shaft 551.
Please refer to fig. 2, a first power line clip 712 is fixed to the bottom of the wire holder housing 71 through a clip rivet 7121 (a pair) at a position corresponding to a rivet hole 7112 (a pair) preset on the bottom wall of the wire holder cavity 711, a second power line clip 713 is connected to one side corresponding to the first power line clip 712 through a pair of clip screws 7131, and the first power line clip 712 and the second power line clip 713 respectively correspond to two sides of the power lead-out wire relief hole 7111 in a mutually matched state; a housing cover fixing screw hole 714 is formed in a central position on one side (front side shown in fig. 2) of an upper portion of the wire holder housing 71, a housing cover fixing screw 7141 is provided in the housing cover fixing screw hole 714, and a housing cover insert pin 715 is formed in a position on the other side (rear side shown in fig. 2) of the upper portion of the wire holder housing 71, a housing cover screw hole 724 is formed in a central portion on one side of the wire holder housing cover 72 and in a position corresponding to the housing cover fixing screw hole 714, and a screw retaining pin 7241 (a pair of) into which the housing cover fixing screw hole 7141 is screwed is formed in a position corresponding to a lower portion of the housing cover screw hole 724, a housing cover insert pin groove (not shown) into which the housing cover insert pin 715 is inserted is formed in a central portion on the other side (rear side shown in fig. 2) of the wire holder housing cover 72 and in a position corresponding to the housing cover insert pin 715; a first hanging ring 7211 is arranged on the first cover plate ear 721 of the housing, a second hanging ring 7221 is arranged on the second cover plate ear 722 of the housing, and the first and second hanging rings 7211 and 7221 can hang corresponding power cords according to requirements; a wire holder fixing lug 734 respectively extending from two corresponding sides of the upper portion of the power wire holder 73, a fixing lug screw 7341 being disposed on the wire holder fixing lug 734, the fixing lug screw 7341 being fixed to the wire holder housing cover plate 72; the power lead-out wire 75 led out from the power lead-out wire abdicating hole 7111 is electrically connected with a driving motor of a cloth spreading machine or an electronic and electrical product testing production line after passing through the first and second clamping pieces 712 and 713 of the power cord.
As a preferable scheme, one end of a traction tube 9 is clamped between the first and second clamping pieces 712 and 713 of the power line, the other end of the traction tube 9 is fixed to a driving motor base of a driving motor of a spreader or an electronic product testing production line, and the power lead-out wire 75 is inserted into the traction tube 9.
Turning attention to fig. 3 in conjunction with fig. 1, the position of fig. 3 is reversed relative to fig. 1 for clarity of disclosure of the relevant components. The aforementioned extended connection mechanism 6 for a pulley rail comprises a pulley rail first side connection piece 61, a pulley rail second side connection piece 62, a pulley rail connection piece cover plate 63, a pulley rail connection joint insulation insert 64 and a pulley rail connection joint 65, where the pulley rail first side connection piece 61 is inserted and connected with two adjacent pulley rails 2 at a position corresponding to between ends of one side (right side in the state shown in fig. 1) of two adjacent pulley rails 2 from head to tail, the pulley rail second side connection piece 62 is inserted and connected with two adjacent pulley rails 2 at a position corresponding to between ends of the other side (left side in the state shown in fig. 1) of two adjacent pulley rails 2 from head to tail, in the figure, one side connection piece block foot 623 (also referred to as "insulation insert block foot") formed at both ends of an upper portion (the concept of the upper portion is exemplified by the position state shown in fig. 1) of the pulley rail second side connection piece 62 is shown, and a pulley rail connection joint insulation insert yielding cavity 624 is formed between a pair of the pair of side connection piece feet 623, which is not exemplified by the pulley rail first side connection piece, and is not repeated. The pulley rail connecting sheet cover plate 63 is inserted and connected between the pulley rail first and second side connecting sheets 61 and 62 at the position corresponding to the upward side of the pulley rail first side connecting sheet 61 and the pulley rail second side connecting sheet 62, the pulley rail coupling joint insulating embedded seat 64 is fixed with the downward side of the pulley rail connecting sheet cover plate 63 by the insulating embedded seat fixing screw 642, pulley rail coupling joint embedded grooves (three in this embodiment) equal to the number of the pulley rail coupling joints 65 are formed on the downward side of the pulley rail coupling joint insulating embedded seat 64, the number of the pulley rail coupling joints 65 is equal to the number of the conductive rails 4 (three in this embodiment) and corresponds to the pulley rail coupling joint embedded grooves 641, and the conductive rail inserting cavities 651 of the pulley rail coupling joints 65 are matched with the end parts of the two adjacent conductive rails 4 and locked with the conductive rails 4 by the pulley rail coupling joint locking screws 652.
Fig. 3 also shows conductor rail insulating holder caulking grooves 27 formed at both sides of the top (taking the state of fig. 1 as an example) in the longitudinal direction of the pulley conductor rail cavity 21, and both sides of the conductor rail insulating holder 3 are fitted into the conductor rail insulating holder caulking grooves 27. Fig. 3 further shows the pulley rail coupling joint insulation seat avoiding cavity 28 opened at the top of the pulley rail 2 (the position state shown in fig. 1 is taken as an example), and the aforementioned pulley rail coupling joint insulation insert 64 corresponds to both the pulley rail coupling joint insulation seat avoiding cavity 624 and the pulley rail coupling joint insulation insert avoiding cavity 28.
Continuing with fig. 3, a first side connecting piece caulking groove 23 is formed in each of the upper and lower portions of the side of the pulley rail 2 facing the first side connecting piece 61 of the pulley rail, the upper and lower portions of the first side connecting piece 61 of the pulley rail are fitted into the first side connecting piece caulking groove 23 of the pulley rail and a first side connecting piece caulking groove 611 is extended in the lower portion (in the state of fig. 1) in the length direction of the first side connecting piece 61 of the pulley rail, the first side connecting piece caulking groove 611 is fitted into the hemming groove of the first caulking piece fitting hem 24 formed in the lower portion of the side of the pulley rail 2 facing the first side connecting piece 61 of the pulley rail, a first side connecting piece caulking cavity 6111 is formed in the middle portion in the length direction of the first side caulking piece 611, and a first side connecting piece caulking groove stopper flange 241 is formed at the end portion of the first caulking piece fitting hem 24 and at a position corresponding to the first side connecting piece caulking cavity 6111, the first side connecting piece caulking stopper flange 241 corresponds to the first side connecting piece caulking cavity 6111; a second side connecting piece caulking groove 25 of the slide rail is formed in each of an upper portion and a lower portion (taking a state of fig. 1 as an example) of a side of the pulley rail 2 facing the second side connecting piece 62 of the pulley rail, an upper portion and a lower portion of the second side connecting piece 62 of the pulley rail are fitted in the second side connecting piece caulking groove 25 of the pulley rail and a second side connecting piece caulking pin 621 is extended in a lower portion in a length direction of the second side connecting piece 62 of the pulley rail, the second side connecting piece caulking pin 621 is fitted in the second caulking pin fitting 26 caulking groove formed in the lower portion of the side of the pulley rail 2 facing the second side connecting piece 62 of the pulley rail, a second side connecting piece caulking pin cavity 6211 is formed in a middle portion in the length direction of the second side connecting piece caulking pin 621, and a second side connecting piece caulking pin stopper 261 corresponding to the second side connecting piece caulking pin cavity 6211 is formed in an end portion of the second caulking pin 26 and in a position corresponding to the second side connecting piece caulking pin cavity 6211.
As shown in fig. 3, a pair of first fitting cavities 612 is formed in the first coupling piece 61, a pair of second fitting cavities 622 is formed in the second coupling piece 62, a pair of first fitting flanges 631 are formed at positions corresponding to the pair of first fitting cavities 612 on the side of the first coupling piece 61 facing the second coupling piece 63, a pair of second fitting flanges 632 are formed at positions corresponding to the pair of second fitting cavities 622 on the side of the first coupling piece 62 facing the second coupling piece 63, a pair of first fitting flanges 631 are fitted into the pair of first fitting cavities 612, and a pair of second fitting flanges 632 are fitted into the pair of second fitting cavities 622.
An external power supply is connected to the conductive rail 4, since the carbon brushes 56 of the structural system of the feed pulley mechanism 5 and the carbon brush conductive surfaces 41 of the conductive rail 4 form a sliding pair and are kept in electrical contact, the power supply is led to the carbon brushes 56 by the conductive rail 4, the power supply is fed to the carbon brush feed power line electric connecting sheet 74 of the structural system of the power supply wiring mechanism 7 by the carbon brush feed power line 562, the power supply leading-out wire 75 connected with the carbon brush feed power line electric connecting sheet 74 leads to a driving motor of the cloth stretcher, and the power supply leading-out wire 75 is clamped by the first clamping sheet 712 and the second clamping sheet 713 of the power supply, so that the condition that the carbon brush feed power line electric connecting sheet 74 falls off cannot occur. During the reciprocating motion of the driving motor of the tenter, the entire feed slide mechanism 5 and the power line connection mechanism 7 are accompanied by the reciprocating motion of the driving motor.
Example 2:
for embodiment 1, the quantity of conductor rail 4 changes into two to adapt to two-phase power, because the quantity of conductor rail 4 is two, therefore the quantity of the fixed caulking groove 31 of conductor rail on the insulating fixing base 3 of corresponding conductor rail is two, and the carbon brush 56 is two, and coaster guide rail allies oneself with rail connector 65 and is two, and coaster guide rail allies oneself with rail connector caulking groove 641 and is two. Other components such as a carbon brush power supply line connector tab 74 are two, and so on. In view of flexibility in use and cost saving of the mold, when the present invention is applied to a two-phase power supply, the insulating holders 3 for the conductive rails, the insulating holders 64 for the trolley rail-to-rail connectors, the only few conductive rail fixing grooves 31 and the few trolley rail-to-rail connector grooves 641 of embodiment 1 are used. In addition, the embodiment 2 is suitable for the detection production line of the electronic and electric products or other similar products.
In conclusion, the technical scheme provided by the invention overcomes the defects in the prior art, successfully completes the invention task and truly realizes the technical effects of the applicant in the technical effect column.
Claims (8)
1. A rail-type sliding contact power supply device is characterized by comprising a hanger seat (1), wherein the hanger seat (1) is fixed with a frame (8) of a spreading machine or an electronic and electrical product testing production line in a use state, a hanger rod (11) is arranged on the hanger seat (1), and a pair of hanger clamping feet (111) which are arranged correspondingly to each other is fixed at the lower end of the hanger rod (11); a trolley guide rail (2), wherein the trolley guide rail (2) is supported on the pair of hanger clamping feet (111) at the position corresponding to the hanger clamping foot cavity (1111) of the pair of hanger clamping feet (111); the number of the conductive rail insulation fixing seats (3) is a plurality of conductive rail insulation fixing seats distributed at intervals along the length direction of the pulley guide rail (2) and the conductive rail insulation fixing seats are fixedly embedded in a pulley guide rail cavity (21) of the pulley guide rail (2) and the top wall of the pulley guide rail cavity (21); two or three conducting rails (4) are arranged, and the conducting rails (4) are embedded and fixed with one downward side of the conducting rail insulation fixing seat (3); the power feeding pulley mechanism (5) is arranged in the pulley guide rail cavity (21) under the condition that a rolling pair is formed by the power feeding pulley mechanism (5) and the pulley guide rail cavity (21) and is in sliding fit with the conductive rail (4); the pulley guide rail lengthening and connecting mechanism (6) is connected between the two adjacent pulley guide rails (2) at the head and the tail of the pulley guide rail lengthening and connecting mechanism (6); a power supply wiring mechanism (7), wherein the power supply wiring mechanism (7) corresponds to the lower part of the pulley guide rail (2), and the power feed pulley mechanism (5) is fixed with the power supply wiring mechanism (7) and is electrically connected with the power supply wiring mechanism (7); a pair of pulley roller raceways (22) are formed at the lower part of the pulley guide rail (2) in the length direction, the opposite sides of the pulley roller raceways (22) in the length direction are folded and unfolded downwards to form a pair of guide roller flanges (221), the space between the guide roller flanges (221) is formed into a guide roller groove (2211), the feed pulley mechanism (5) which is in sliding fit with the conductive rail (4) embedded in the conductive rail fixing embedding groove (31) of the conductive rail insulating fixing seat (3) forms a rolling pair with the pulley roller raceways (22) and the guide roller groove (2211) and is fixed with the power supply wiring mechanism (7) in a state of extending out of the guide roller groove (2211); the feed pulley mechanism (5) comprises a carbon brush fixing seat (51), a pair of pulley first rollers (52), a pair of pulley second rollers (53), a first guide roller (54), a second guide roller (55), a carbon brush (56) and a carbon brush guide seat (57), wherein the carbon brush fixing seat (51) is molded by plastics, a cover fixing column (511) extends at the center of the downward side of the carbon brush fixing seat (51), a first roller seat (512) is formed at one end of the carbon brush fixing seat (51), a second roller seat (513) is formed at the other end of the carbon brush fixing seat, the pair of pulley first rollers (52) are respectively and rotatably arranged at the two sides of the first roller seat (512) through a pulley first roller shaft (521) in a mutually corresponding state, the pair of pulley second rollers (53) are respectively and rotatably arranged at the two sides of the second roller seat (513) through a pulley second roller shaft (531) in a mutually corresponding state, the first guide rollers (54) are rotatably arranged at the first guide roller shaft, the upper part of the first guide roller shaft is supported at the middle of the first roller seat (551) at the lower side of the first roller shaft (55), the wire connection point of the second roller seat (55) is supported at the upper end of the second roller shaft (551) of the second roller seat (55) and the wire connection point, the second roller shaft, the guide roller seat (55) is supported at the upper part of the lower side of the second roller shaft (55) towards the wire connection point of the second roller seat (55), the lower end of the second guide roller shaft (551) is also supported on the power supply wiring mechanism (7), a carbon brush guide seat (57) is molded by plastics, the carbon brush guide seat (57) is fixed with one side of the carbon brush fixing seat (51) facing upwards at a position corresponding to the space between the first roller seat (512) and the second roller seat (513), one side of the carbon brush guide seat (57) facing the carbon brush fixing seat (51) is provided with a carbon brush frame sliding cavity (571), the upper part of the carbon brush guide seat (57) is provided with carbon brush sliding grooves (572) with the same number as the carbon brushes (56) at intervals corresponding to the positions of the carbon brushes (56), the carbon brushes (56) correspond to the carbon brush sliding grooves (572) and are in sliding fit with the carbon brush sliding grooves (572), the upper surface of the carbon brush guide seat (56) is in sliding fit with the conductive rail (4), the lower part of the carbon brush guide roller guide seat (57) is extended into the carbon brush frame sliding cavity (571) and is fixed with one side of the carbon brush fixing seat (561) facing upwards, one side of the conductive rail (5111) is provided with a power supply wire (5611) which covers the carbon brush fixing seat, one side of the carbon brush fixing seat (5611) which is provided with a power supply wire (5111) which covers the carbon brush fixing seat, the carbon brush seat (51) and a power supply wire which covers the carbon brush seat (562) which is covered with a power supply wire (5611), and a power supply wire which is arranged on the carbon brush seat (5611) which is arranged on the carbon brush seat (562) which is arranged in a carbon brush seat cover plate which is arranged on the carbon brush seat (5611) Extend towards the power wiring mechanism (7) and are electrically connected with the power wiring mechanism (7), one of the pair of first pulley rollers (52) and one of the pair of second pulley rollers (53) form a rolling pair with one of the pair of pulley roller raceways (22), the other of the pair of first pulley rollers (52) and the other of the pair of second pulley rollers (53) form a rolling pair with the other of the pair of pulley roller raceways (22), and the first guide roller (54) and the second guide roller (55) form a rolling pair with the pair of guide roller folds (221) at positions corresponding to the guide roller slots (2211).
2. The rail-type sliding contact power supply apparatus according to claim 1, wherein said hanger base (1) is formed in an L-shape, upper portions of said pair of hanger clamping legs (111) are bent toward each other to form a hanger clamping leg connecting arm (1112), lower portions thereof are also bent toward each other to form a trolley rail supporting arm (1113), said pair of hanger clamping leg connecting arms (1112) are overlapped with each other and threadedly engaged with said hanger bar (11) through a pair of hanger clamping leg connecting arm locking nuts (1114), and a space between said pair of trolley rail supporting arms (1113) is formed as a trolley rail protrusion recess cavity (1115); the pulley guide rail (2) and the pulley guide rail lengthening connection mechanism (6) are supported on the pair of pulley guide rail supporting arms (1113), a conductor rail fixing caulking groove (31) is formed on one side, facing the conductor rail (4), of the conductor rail insulating fixing seat (3), the conductor rail (4) is fixedly embedded in the conductor rail caulking groove (31), and the feed pulley mechanism (5) is fixed to the power supply wiring mechanism (7) at a position corresponding to the position where the pulley guide rail extends out of the yielding cavity (1115).
3. The power supply apparatus according to claim 1, wherein when the number of the conductive rail (4) is two, the number of the carbon brush sliding grooves (572) formed in the carbon brush guide base (57) is two, the number of the carbon brushes (56) is two, and when the number of the conductive rail (4) is three, the number of the carbon brush sliding grooves (572) is three, and the number of the carbon brushes (56) is three; a spring seat (514) is formed on the carbon brush fixing seat (51) at a position corresponding to the carbon brush base plate supporting spring (5611), and the carbon brush base plate supporting spring (5611) is supported on the spring seat (514).
4. The rail-type sliding contact power supply device according to claim 1, wherein the power connection mechanism (7) comprises a connection base housing (71), a connection base housing cover plate (72), a power line connection base (73), a carbon brush feed power line electrical connection sheet (74) and power lead-out wires (75), the connection base housing (71) is formed with a connection base cavity (711), a power lead-out wire relief hole (7111) is formed at the center of the cavity bottom wall of the connection base cavity (711), the connection base housing cover plate (72) is fixed with the connection base housing (71) at the position corresponding to the upper opening of the connection base housing (71), a housing first cover plate lug (721) extends from one side of the connection base housing cover plate (72) facing the first roller base (512), a cover second cover plate lug (722) extends towards one side of the second roller seat (513), a cover fixing column matching hole (723) is formed in the middle of the wire holder cover plate (72) and in a position corresponding to the cover fixing column (511), the power wire holder (73) is molded by plastics, the power wire holder (73) and the wire holder cover plate (72) are fixed towards one side of the wire holder cavity (711), a carbon brush feed power wire cavity (731) is formed in the center of the power wire holder (73), and the number of the power wire holders and the number of the carbon brush feed power wires (562) are formed in a position corresponding to the carbon brush feed power wires The carbon brush feed power line lead holes (732) are formed in the power lines (562) in equal number, the carbon brush feed power line lead holes (732) are communicated with a carbon brush feed power line cavity (731), electric connection sheet cavities (733) are formed in the lower portion of a power line connector base (73) in equal number to the carbon brush feed power lines (562), the electric connection sheet cavities (733) are communicated with the carbon brush feed power line cavity (731), adjacent electric connection sheet cavities (733) are isolated and separated by an electric connection sheet cavity partition wall (7331), the number of carbon brush feed power line electric connection sheets (74) is equal to the number of carbon brush feed power lines (562), the carbon brush feed power line electric connection sheets (74) are fixed with the electric connection sheet cavities (733) at positions corresponding to the electric connection sheet electric connection sheets and extend into the carbon brush feed power line cavity (731), the number of power supply lead-out leads (75) is equal to the number of the carbon brush feed power line electric connection sheets (74), one end of the power lead-out leads (75) are fixedly connected with the carbon brush feed power line electric connection sheets (74), and the other end of the carbon brush feed power lead-out holes (7111) and are connected with an electric drive motor product; the carbon brush feed power line (562) is led out of the cover fixed column power line through hole (5111), then led into the carbon brush feed power line cavity (731) through the carbon brush feed power line threading hole (732), and is electrically and fixedly connected with the carbon brush feed power line electric connecting sheet (74) through a carbon brush feed power line end fixing screw (5621) at a position corresponding to a feed power line end fixing screw hole (741) formed in the carbon brush feed power line electric connecting sheet (74); the cover fixing column (511) is fixedly inserted into the cover fixing column matching hole (723) at a position corresponding to the cover fixing column matching hole (723); the lower end of the first guide roller shaft is supported on the first cover plate lug (721) of the housing, and the lower end of the second guide roller shaft (551) is supported on the second cover plate lug (722) of the housing.
5. The rail-type sliding contact power supply device according to claim 4, wherein a first power line clamping piece (712) is fixed at the bottom of the wire holder housing (71), a second power line clamping piece (713) is connected to a side corresponding to the first power line clamping piece (712), and the first power line clamping piece (712) and the second power line clamping piece (713) respectively correspond to two sides of the power lead-out wire relief hole (7111) in a mutually matched state; a housing cover plate fixing screw hole (714) is formed in the middle of one side of the upper part of the wire holder housing (71), a housing cover plate fixing screw (7141) is arranged on the housing cover plate fixing screw hole (714), a housing cover plate embedding pin (715) is formed in the other side of the upper part of the wire holder housing (71), a housing cover plate screw hole (724) is formed in the middle of one side of the wire holder housing cover plate (72) and in the position corresponding to the housing cover plate fixing screw hole (714), the housing cover plate fixing screw (7141) is screwed into the housing cover plate screw hole (724), a housing cover plate embedding pin groove is formed in the middle of the other side of the wire holder housing cover plate (72) and in the position corresponding to the housing cover plate embedding pin (715), and the housing cover plate embedding pin (715) is embedded into the housing cover plate embedding pin groove; a first hanging ring (7211) is arranged on the first cover plate ear (721) of the housing, and a second hanging ring (7221) is arranged on the second cover plate ear (722) of the housing; a wire holder fixing lug (734) respectively extends from two corresponding sides of the upper part of the power wire holder (73), a fixing lug screw (7341) is arranged on the wire holder fixing lug (734), and the fixing lug screw (7341) is fixed with the wire holder housing cover plate (72); the power supply lead-out wire (75) led out from the power supply lead-out wire abdicating hole (7111) is electrically connected with a cloth stretcher or a driving motor of an electronic and electrical product test production line after passing through the space between the first clamping piece (712) and the second clamping piece (713) of the power supply wire.
6. The rail-type sliding contact power supply device according to claim 2, wherein the pulley rail extension connecting mechanism (6) comprises a pulley rail first side connecting piece (61), a pulley rail second side connecting piece (62), a pulley rail connecting piece cover plate (63), a pulley rail connecting joint insulating embedded seat (64) and a pulley rail connecting joint (65), the pulley rail first side connecting piece (61) is inserted and embedded with two adjacent pulley rails (2) at a position corresponding to a position between one side end parts of two adjacent pulley rails (2) in the head and the tail, the pulley rail second side connecting piece (62) is inserted and embedded with two adjacent pulley rails (2) at a position corresponding to a position between the other side end parts of two adjacent pulley rails (2) in the head and the tail, the pulley guide rail connecting sheet cover plate (63) is inserted and embedded between the first side connecting sheet (61) and the second side connecting sheet (62) of the pulley guide rail at the position corresponding to the upward side of the first side connecting sheet (61) and the second side connecting sheet (62) of the pulley guide rail, the pulley guide rail connecting joint insulating embedded seat (64) is fixed with the downward side of the pulley guide rail connecting sheet cover plate (63) through an insulating embedded seat fixing screw (642), pulley guide rail connecting joint embedded grooves (641) with the number equal to that of the pulley guide rail connecting joints (65) are formed on the downward side of the pulley guide rail connecting joint insulating embedded seat (64), the quantity of pulley guide rail coupling connectors (65) is equal to the quantity of the conductive rails (4) and corresponds to the pulley guide rail coupling connector caulking grooves (641), and a conductive rail insertion cavity (651) of the pulley guide rail coupling connectors (65) is matched with the end parts of two adjacent conductive rails (4) and is locked by a pulley guide rail coupling connector locking screw (652) and the conductive rails (4).
7. The rail-type sliding contact power feeding apparatus according to claim 6, wherein a first side connecting piece caulking groove (23) is formed in each of upper and lower portions of a side of said pulley rail (2) facing said first side connecting piece (61), the upper and lower portions of the first side connecting piece (61) of the pulley rail are fitted in the first side connecting piece caulking groove (23) of the pulley rail and a first side connecting piece caulking pin (611) is spread in a lower portion in a length direction of the first side connecting piece (61) of the pulley rail, the first side connecting piece caulking pin (611) is fitted in a caulking groove of a first caulking pin fitting flange (24) formed in a lower portion in a length direction of the first side connecting piece (61) of the pulley rail (2), a first side connecting piece caulking groove (6111) is formed in a middle portion in a length direction of the first side caulking pin (611), and a first side connecting piece caulking pin stopper (241) is formed in an end portion of the first caulking pin fitting flange (24) and in a position corresponding to the first side caulking pin groove (6111), the first side connecting piece caulking pin fitting flange stopper (6111) corresponding to the first side connecting piece caulking pin fitting flange (241); the upper part and the lower part of one side of the pulley guide rail (2) facing the pulley guide rail second side connecting sheet (62) are respectively provided with a sliding guide rail second side connecting sheet caulking groove (25), the upper part and the lower part of the pulley guide rail second side connecting sheet (62) are in embedded fit with the pulley guide rail second side connecting sheet caulking groove (25), a second side connecting sheet caulking pin (621) is folded and unfolded at the lower part of the length direction of the pulley guide rail second side connecting sheet (62), the second side connecting sheet caulking pin (621) is in embedded fit with a second caulking pin embedding folding edge (26) formed at the pulley guide rail (2) facing the lower part of one side of the pulley guide rail second side connecting sheet (62), a second side connecting sheet caulking pin cavity (6211) is formed at the middle part of the length direction of the second side connecting sheet caulking pin (621), a second side connecting sheet caulking pin stopping flange (261) is formed at the end part of the second caulking pin embedding folding edge (26) and at the position corresponding to the second side connecting sheet caulking pin cavity (6211), and the second side connecting sheet caulking pin flange (261) corresponds to the second side connecting sheet caulking pin cavity (6211).
8. The track-type sliding contact power supply device according to claim 6, wherein a pair of first engaging cavities (612) is formed in the first side connecting piece (61) of the carrier rail, a pair of second engaging cavities (622) is formed in the second side connecting piece (62) of the carrier rail, a pair of first engaging flanges (631) of the carrier rail is formed in a side of the carrier rail connecting piece (63) facing the first side connecting piece (61) of the carrier rail and in positions corresponding to the pair of first engaging cavities (612), a pair of second engaging flanges (632) of the carrier rail connecting piece is formed in a side of the carrier rail connecting piece (63) facing the first side connecting piece (62) of the carrier rail and in positions corresponding to the pair of second engaging cavities (622), the pair of first engaging flanges (631) of the carrier rail connecting piece are engaged with the pair of first engaging cavities (612), and the pair of second engaging flanges (632) of the carrier rail connecting piece are engaged with the pair of second engaging cavities (622).
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CN114284819A (en) * | 2021-12-22 | 2022-04-05 | 北京京东乾石科技有限公司 | Current collector and article transportation system |
CN114321620B (en) * | 2022-03-16 | 2022-05-17 | 天津市拓甫网络科技开发有限公司 | Intelligent industrial Internet data acquisition device and method based on 5G |
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