Specific implementation mode
Present invention is described in the application scenario of a pair of of transfer switching equipment linkage below in conjunction with the accompanying drawings, entire
In description, identical component uses identical reference numeral.For two transfer switching equipments, or for being opened with corresponding conversion
For the interlock of powered-down device connection, many components are identical.In this case, for two transfer switching equipments or
Identical component in the corresponding interlock of person can use same reference numeral, and suffix is then used after reference numeral
" a " or " b " is distinguish.
Refering to what is shown in Fig. 1, Fig. 1 discloses the knot of the interlock of the transfer switching equipment of an embodiment according to the present invention
Composition.A pair of of transfer switching equipment, including the first transfer switching equipment 1a and the second transfer switching equipment 1b.Shown in Fig. 1
In embodiment, the first transfer switching equipment 1a is located above, and the second transfer switching equipment 1b is located at lower section, the first change-over switch electricity
Device 1a and the second transfer switching equipment 1b are arranged in a manner of vertical non-alignment, and are installed in a switchgear (switch jointly
Cabinet is not shown).Underlying second transfer switching equipment 1b is located in drawer chassis locking member 8, drawer chassis locking part
Part 8 surrounds the second transfer switching equipment 1b.First transfer switching equipment 1a and the second transfer switching equipment 1b respectively has common
The driving mechanism of side and prepped side.Each driving mechanism includes shaft, actuating arm and disconnection interlocking elements.Shaft can rotate and
Actuating arm rotation is driven, so that the driving mechanism of the corresponding side of transfer switching equipment carries out between open/close state
Switching.Disconnecting interlocking elements can rotate between activation point and non-driven position, and driving is turned to when disconnecting interlocking elements
When position, transfer switching equipment can be maintained at open/close state, non-driven position is turned to when disconnecting interlocking elements
When, then the state of transfer switching equipment is not influenced.
Fig. 2 and Fig. 4 discloses the first conversion in the interlock of the transfer switching equipment of an embodiment according to the present invention
The structure chart of device for switching, wherein Fig. 2 are the structures shown in the first direction (right direction), and Fig. 4 is from second direction (left side
Direction) shown in structure.As shown in Figure 2 and Figure 4, the driving mechanism of the common side of the first transfer switching equipment 1a includes:First
Shaft 2a, the first actuating arm 4a, the second actuating arm 4b, first disconnect interlocking elements 3a.First shaft 2a is mounted on the first conversion
In device for switching 1a and it can rotate.First shaft 2a is located at higher position in the first transfer switching equipment 1a.First shaft 2a
Both ends respectively close to the first transfer switching equipment 1a the first side plate (right side side plate) 22 and the second side plate (left side side plate) 23.
First actuating arm 4a is mounted on the first end of the first shaft 2a and the first actuating arm 4a is extended to except the first side plate 22.Second
Actuating arm 4b is mounted on the second end of the first shaft 2a and the second actuating arm 4b is extended to except the second side plate 23.First shaft
2a rotations drive the first actuating arm 4a and the second actuating arm 4b rotations, so that the common side of the first transfer switching equipment is disconnected
It is switched between opening/closing conjunction state.First disconnection interlocking elements 3a is located at the top of the first shaft 2a.First disconnects interlocking portion
Part 3a can be rotated between activation point and non-driven position, when the first disconnection interlocking elements 3a turns to activation point,
The common side of first transfer switching equipment can be maintained at open/close state, when the first disconnection interlocking elements 3a is turned to
When non-driven position, then the common side state of the first transfer switching equipment is not influenced.In the illustrated embodiment, first connection is disconnected
Lock assembly 3a is arranged on close to the first side of the first side plate 22, therefore the first disconnection interlocking elements 3a also equally is located at the first drive
The first disconnection interlocking elements 3a is shown in FIG. 2 in the top of swing arm 4a.
The driving mechanism of the prepped side of first transfer switching equipment 1a includes:Second shaft 2b, third actuating arm 5a, second
Disconnect interlocking elements 3b.Second shaft 2b is mounted in the first transfer switching equipment 1a and can rotate.Second shaft 2a is located at the
Lower position in one transfer switching equipment 1a.The both ends of second shaft 2b respectively close to the first transfer switching equipment 1a first
Side plate (right side side plate) 22 and the second side plate (left side side plate) 23.Third actuating arm 5a is mounted on the first end of the second shaft 2b simultaneously
And third actuating arm 5a is extended to except the first side plate 22.The second end of second shaft 2b does not install actuating arm.Second shaft 2b
Rotation drives third actuating arm 5a rotation so that the prepped side of the first transfer switching equipment between open/close state into
Row switching.Second disconnection interlocking elements 3b is located at the lower section of the second shaft 2b.Second disconnects interlocking elements 3b can be in driving position
It sets and is rotated between non-driven position, when the second disconnection interlocking elements 3b turns to activation point, the first conversion can be opened
The prepped side of powered-down device is maintained at open/close state, when the second disconnection interlocking elements 3b turns to non-driven position, then not
Influence the prepped side state of the first transfer switching equipment.In the illustrated embodiment, the second disconnection interlocking elements 3b is arranged on
Close to the second side of the second side plate 23, the second disconnection interlocking elements 3b is shown in FIG. 4.
Fig. 3 and Fig. 5 discloses the second conversion in the interlock of the transfer switching equipment of an embodiment according to the present invention
The structure chart of device for switching, wherein Fig. 3 are the structures shown in the first direction (right direction), and Fig. 5 is from second direction (left side
Direction) shown in structure.As shown in Figure 3 and Figure 5, the driving mechanism of the common side of the second transfer switching equipment 1b includes:Third
Shaft 2c, the 4th actuating arm 4c, third disconnect interlocking elements 3c.Third shaft 2c be mounted on the second transfer switching equipment 1b in and
It can rotation.Third shaft 2c is located at higher position in the second transfer switching equipment 1b.The both ends of third shaft 2c respectively close to
First side plate (right side side plate) 9 and the second side plate (left side side plate) 91.Since the second transfer switching equipment 1b is located in drawer
It is surrounded in seat locking member 8 and by drawer chassis locking member 8, therefore the first side plate 9 is the first of drawer chassis locking member 8
Side plate, and the second side plate 91 is the second side plate of drawer chassis locking member 8.The both sides side plate of second transfer switching equipment 1b is close to
In the both sides side plate of drawer chassis locking member 8.Second ends and fourth driving of the 4th actuating arm 4c mounted on third shaft 2c
Arm 4c is extended to except the second side plate 91.The first end of third shaft 2c does not install actuating arm.Third shaft 2c rotation drives the
Four actuating arm 4c rotations, so that the common side of the second transfer switching equipment switches between open/close state.Third
Disconnect the top that interlocking elements 3c is located at third shaft 2c.Third disconnects interlocking elements 3c can be in activation point and non-driven position
It is rotated between setting, it, can be by the common of the second transfer switching equipment when third, which disconnects interlocking elements 3c, turns to activation point
Side is maintained at open/close state, when third, which disconnects interlocking elements 3c, turns to non-driven position, does not then influence the second conversion
The common side state of device for switching.In the illustrated embodiment, third disconnects interlocking elements 3c and is arranged on close to the first side plate 9
The first side, third is shown in FIG. 3 and disconnects interlocking elements 3c.
The driving mechanism of the prepped side of second transfer switching equipment 1b includes:4th shaft 2d, the 5th actuating arm 5b, the 4th
Disconnect interlocking elements 3d.4th shaft 2d is mounted in the second transfer switching equipment 1b and can rotate.4th shaft 2d is located at the
Lower position in two transfer switching equipment 1b.The both ends of 4th shaft 2d are respectively close to the first side plate (right side side plate) 9 and
Two side plates (left side side plate) 91.5th actuating arm 5b is mounted on the first end of the 4th shaft 2d and the 5th actuating arm 5b is extended to
Except first side plate 9.The second end of 4th shaft 2d does not install actuating arm.Second shaft 2d rotations drive the 5th actuating arm 5b to turn
It is dynamic, so that the prepped side of the second transfer switching equipment switches between open/close state.Third disconnects interlocking elements
3c is located at the lower section of the 4th shaft 2d.4th disconnection interlocking elements 3d can be rotated between activation point and non-driven position,
When the 4th disconnection interlocking elements 3d turns to activation point, the prepped side of the second transfer switching equipment can be maintained at disconnected
Opening/closing conjunction state does not influence the second transfer switching equipment then when the 4th disconnection interlocking elements 3d turns to non-driven position
Prepped side state.In the illustrated embodiment, the 4th disconnection interlocking elements 3d is arranged on the second side close to the second side plate 91,
The 4th disconnection interlocking elements 3d is shown in FIG. 5.
Fig. 1 is returned to, in the illustrated embodiment, the first transfer switching equipment 1a and the second transfer switching equipment 1b are each
Driving mechanism with common side and prepped side.In the case of normal work, at any time, the first transfer switching equipment 1a
With should be only there are one in running order among the second transfer switching equipment 1b, an and in running order change-over switch
In electric appliance, there is one of the driving mechanism that should only commonly use side and prepped side to be in closed state.Interlocking mechanism installs
Between the first transfer switching equipment 1a and the second transfer switching equipment 1b, interlocking mechanism is normal by the first transfer switching equipment 1a's
It is carried out with the driving mechanism of the driving mechanism of side and prepped side, the common side of the second transfer switching equipment 1b and prepped side corresponding
Interlocking, to meet above-mentioned job requirement.In the illustrated embodiment, in the first transfer switching equipment 1a and the second change-over switch
The interlocking mechanism being arranged between electric appliance 1b includes array interlock and drawer chassis locking member 8 above-mentioned.In one embodiment
In, array interlock includes:First interlock 13, the second interlock 16, third interlock 14, the 4th interlock
15, the 5th interlock 17 and the 6th interlock 18.
First interlock 13 connects the driving mechanism and drawer chassis locking part of the common side of the first transfer switching equipment 1a
Part 8.First interlock 13 is arranged in the first side, and the structure of the first interlock 13 is shown in Fig. 2 and Fig. 3.First interlocking
Device 13 includes the first actuator 30, the first bracket 25, the first accessory 23 and head rod 61.
First actuator 30 is mounted on the outside of the first side plate 22 of the first transfer switching equipment 1a, the first actuator 30
It is corresponding with the common position of side driving mechanism of the first transfer switching equipment 1a in higher position on the first side plate 22.First
Bracket 25 is mounted on the outside of the first side plate 9 of drawer chassis locking member 8.There is the first driven member 33a on first actuating arm 4a,
First driven member 33a is articulated with the first actuator 30.Fig. 6 and Fig. 7 discloses the change-over switch of an embodiment according to the present invention
The structure of first actuator in the interlock of electric appliance, wherein Fig. 6 are the three-dimensional structure diagrams of the first actuator, and Fig. 7 is the first drive
The side view of moving part.As shown in Figure 6 and Figure 7, the first actuator 30 is the supporting structure of plate, is abutted against on the first side plate 22.
The top edge of first actuator 30 turns down horizontal outward with lower edge.First driven member 33a is pacified by first driven shaft 32b
On the first actuator 30.First driven shaft 32b passes through the first actuator 30, and it is driven that the first driven member 33a is connected to first
The first end of axis 32b, the first end of first driven shaft 32b is located at the inside of the first actuator 30, therefore the first driven member 33a is
Positioned at the inside of the first actuator 30.The second end of first driven shaft 32b is located at the outside of the first actuator 30, first driven shaft
The second end of 32b is connected to the first driven lever 35b.First driven shaft 32b is connected in the middle part of first driven lever 35b to make
First driven lever 35b can be rotated around first driven shaft 32b.First end (left-hand end) connection the of first driven lever 35b
The lower end of one spiral tension spring 37b.The upper end of first spiral tension spring 37b is fixed on the top edge of the first actuator 30.First spiral shell
Revolve the first end that tension spring 37b pulls the first driven lever 35b so that the first driven lever 35b forms biasing.First spiral tension spring
37b plays the role of bias spring.In the embodiment shown in fig. 7, the first spiral tension spring 37b makes the first driven lever 35b
Clockwise biasing is generated, in other words so that the first driven lever 35b generates the trend rotated clockwise.First driven thick stick
The second end (right-hand end) of bar 35b is equipped with the first connector 36a.
With reference to figure 3, the first bracket 25 is mounted on the outside of the first side plate 9 of drawer chassis locking member 8.First accessory
23 are mounted on the first bracket 25.First accessory 23 includes T-type lever 11 and the first follower link 12.T-type lever 11 with
It is rotatably articulated on the first bracket 25, in the illustrated embodiment, T-type lever 11 is in its transverse arm and vertical arms
Junction forms hinge joint, in the hinge joint T-type lever 11 is articulated on the first bracket 25.The vertical arms of T-type lever 11
End be articulated with the first end (right-hand end) of the first follower link 12, the second end of the first follower link 12 is articulated with drawer chassis
On locking member 8.Auxiliary screw tension spring 27 is connected on the transverse arm of T-type lever 11.In the illustrated embodiment, auxiliary screw
The upper end of tension spring 27 is connected on the transverse arm of T-type lever 11, and the link position of the upper end of auxiliary screw tension spring 27 is to be located at T-type
On the second segment of the transverse arm of lever 11, i.e., between hinge joint and second end (right-hand end shown in figure).Auxiliary screw tension spring
27 lower end is connected in spring fixed link 24.Auxiliary screw tension spring 27 plays the role of bias spring.Implementation shown in Fig. 3
In example, auxiliary screw tension spring 27 is so that T-type lever 11 generates clockwise biasing, in other words so that T-type lever 11 generates
The trend rotated clockwise.In the lower section of the second segment of the transverse arm of T-type lever 11, there is the first gag lever post 22.First limit
The extreme position that bar 22 can be rotated in the clockwise direction with restricted T type lever 11.First gag lever post 22 can be fixed on drawer chassis
On first side plate 9 of locking member 8, it can also be fixed on the first bracket 25.
Head rod 61 is elongated, and the first end of head rod 61 is connected to the first connector 36a, the first connection
The second end of bar 61 is connected to T-type lever 11.With reference to shown in figure 5 and Fig. 6, the first connector 36a is pivotally installed
There is threaded hole in the second end of the first driven lever 35b, the first connector 36a.Head rod 61 first end (on
End) there is threaded portion (threaded portion is not shown), threaded portion to be screwed into the threaded hole of the first connector 36a so that the
One connecting rod 61 is connect with the first connector 36a.The second end (lower end) of head rod 61 forms a sliding slot (with reference to figure 3
It is shown), there is the second end (right end) of the transverse arm of T-type lever 11 sliding block, sliding block to be embedded in sliding slot so that T-type lever 11
The second end of transverse arm the second end (lower end) of head rod 61 is articulated with by sliding block and sliding slot.Head rod 61 is
Tension part prevents the T-type lever 11 of biased spring effect when resetting by the sliding buffer capacity of sliding block and sliding slot
By 61 back transfer of head rod, sliding slot also plays the role of carrying out stroke adjustment to head rod 61 simultaneously for movement.
Second interlock 16 connects the prepped side driving mechanism and the second change-over switch electricity of the first transfer switching equipment 1a
The common side driving mechanism of device 1b.Second interlock 16 is arranged in the first side, and the second interlock is shown in Fig. 2 and Fig. 3
16 structure.Second interlock 16 includes the second actuator 40a, third actuator 40b and the second connecting rod 64.
Second actuator 40a is mounted on the outside of the first side plate 22 of the first transfer switching equipment 1a, the second actuator 40a
Positioned at the lower section of the first actuator 30, the prepped side driving machine of the position of the second actuator 40a and the first transfer switching equipment 1a
The position of structure corresponds to.On third actuating arm 5a there is the second driven member 33b, the second driven member 33b to be articulated with the second actuator
40a.Second actuator 40a has the structure similar with the first actuator 30, but only there are one driven on the second actuator 40a
Axis, and there are two driven shafts for tool on the first actuator 30.Second actuator 40a is also the supporting structure of plate, abuts against first
On side plate 22.The top edge of second actuator 40a turns down horizontal outward with lower edge.Second driven member 33b passes through second
Driven shaft 32c is mounted on the second actuator 40a.Second driven shaft 32c passes through the second actuator 40a, the second driven member 33b companies
It is connected to the inner opposite end of second driven shaft 32c, the second driven member 33b is positioned at the inside of the second actuator 40a.Second driven shaft
The lateral ends of 32c are connected to the second driven lever 35c.Being connected to second driven shaft 32c in the middle part of second driven lever 35c makes
Obtaining the second driven lever 35c can rotate around second driven shaft 32c.The second end (right-hand end) of second driven lever 35c connects
The lower end of second spiral tension spring 37c.The upper end of second spiral tension spring 37c is fixed on the top edge of the second actuator 40a.Second
Spiral tension spring 37c pulls the second end of the second driven lever 35c so that the second driven lever 35c forms biasing.Second spiral is drawn
Spring 37c plays the role of bias spring.In the embodiment shown in Figure 2, the second spiral tension spring 37c makes the second driven lever
35c generates anticlockwise biasing, in other words so that the second driven lever 35c generates the trend rotated counterclockwise.Second from
The first end (left-hand end) of dynamic lever 35c is equipped with the second connector 36b.Second connector 36b is pivotally installed
There is threaded hole in the first end of the second driven lever 35c, the second connector 36b.
Third actuator 40b is mounted on the outside of the first side plate 9 of drawer chassis locking member 8, and third actuator 40b is located at
Higher position on first side plate 9, the position of the position of third actuator 40b and the common side mechanism of the second transfer switching equipment 1b
Set correspondence.Third disconnects on interlocking elements 3c, and there is third driven member 31b, third driven member 31b to be articulated with third actuator
40b.Third actuator 40b has the structure similar with the second actuator 40a, be also on third actuator 40b only there are one from
Moving axis.Third actuator 40b is also the supporting structure of plate, is abutted against on the first side plate 9.The top edge of third actuator 40b
It is turned down outward with lower edge horizontal.Third driven member 31b is mounted on by third driven shaft 32d on third actuator 40b.
Third driven shaft 32d passes through third actuator 40b, third driven member 31b to be connected to the inner opposite end of third driven shaft 32d, the
Three driven member 31b are positioned at the inside of third actuator 40b.The lateral ends of third driven shaft 32d are connected to the driven thick stick of third
Bar 35d.Be connected in the middle part of third driven lever 35d third driven shaft 32d enable third driven lever 35d around third from
Moving axis 32d rotations.The upper end of second end (right-hand end) the connection third spiral tension spring 37d of third driven lever 35d.Third spiral
The lower end of tension spring 37d is fixed on the lower edge of third actuator 40b.Third spiral tension spring 37d pulls third driven lever 35d
Second end so that third driven lever 35d forms biasing.Third spiral tension spring 37d plays the role of bias spring.In Fig. 3
Shown in embodiment, third spiral tension spring 37d makes third driven lever 35d generate clockwise biasing, in other words
So that third driven lever 35d generates the trend rotated clockwise.The first end (left-hand end) of third driven lever 35d is equipped with
Third connector 36c.Third connector 36c is rotatably mounted to the first end of third driven lever 35d, and third connects
There is threaded hole on connector 36c.
Second connecting rod 64 is elongated, and the first end of the second connecting rod 64 is connected on the second driven lever 35c
Two connector 36b, the second end of the second connecting rod 64 are connected to the sliding block 38a on third driven lever 35d, sliding block 38a installations
In the second end of third driven lever 35d.The first end (upper end) of second connecting rod 64 has threaded portion, and (threaded portion is not schemed
Show), threaded portion is screwed into the threaded hole of the second connector 36b so that the second connecting rod 64 and the second connector 36b connect
It connects.The second end (lower end) of second connecting rod 64 forms a sliding slot (with reference to shown in figure 3), the cunning on third driven lever 35d
Block 38a is embedded in sliding slot so that the second end (right-hand end) of third driven lever 35d is articulated with the second of the second connecting rod 64
It holds (lower end).Second connecting rod 64 is also tension part, and biased spring is prevented by the sliding buffer capacity of sliding block and sliding slot
By 64 back transfer of the second connecting rod, sliding slot also plays pair simultaneously for movements of the third driven lever 35d of effect when resetting
Second connecting rod 64 carries out the effect of stroke adjustment.
Third interlock 14 connects the common side driving mechanism and drawer chassis locking member of the second transfer switching equipment 1b
8.Third interlock 14 is arranged in the first side.The structure of third interlock 14 is shown in Fig. 3.Third interlock 13 wraps
Include third connecting rod 63.Third connecting rod 63 is elongated, and it is driven that the first end (upper end) of third connecting rod 63 is connected to third
Third connector 36c on lever 35d.The second end (lower end) of third connecting rod 63 is connected to the transverse arm of T-type lever 11
First end (left end).The first end of third connecting rod 63 has threaded portion (threaded portion is not shown), and threaded portion is screwed into
In the threaded hole of third connector 36c so that third connecting rod 63 is connect with third connector 36c.The of third connecting rod 63
Two ends (lower end) form a sliding slot (with reference to shown in figure 3), and the first end (left end) of the transverse arm of T-type lever 11 has sliding block,
Sliding block is embedded in sliding slot.Third connecting rod 63 is pressure-containing parts, is prevented by inclined by the sliding buffer capacity of sliding block and sliding slot
Movement of the T-type lever 11 of spring effect when resetting is set by 63 back transfer of third connecting rod, sliding slot also plays pair simultaneously
Third connecting rod 63 carries out the effect of stroke adjustment.
4th interlock 15 connects the driving mechanism and the second change-over switch of the common side of the first transfer switching equipment 1a
The driving mechanism of the prepped side of electric appliance 1b.4th interlock 15 is arranged in the first side, and the 4th interlocking is shown in Fig. 2 and Fig. 3
The structure of device 15.4th interlock 15 includes the first actuator 30, fourth drive member 40c and the 4th connecting rod 62.
4th interlock 15 shares the first actuator 30 with the first interlock 13 above-mentioned, but the two is driven using first
Different driven shaft on moving part 30.With reference to shown in figure 6 and Fig. 7, there are two driven shaft, the first interlocking dresses for tool on the first actuator 30
It sets 13 and uses first driven shaft 32b positioned at lower left, and the 4th interlock 15 uses positioned at upper right side
Nine driven shaft 32a.On first disconnection interlocking elements 3a there is the 9th driven member 31a, the 9th driven member to be articulated with the 9th driven shaft
32a.9th driven shaft 32a passes through the first actuator 30, the 9th driven member 31a to be connected to the 9th driven shaft 32a and be located inside
First end, the 9th driven member 31a are located at the inside of the first actuator 30.9th driven shaft 32a is located at the second end connection in outside
To the 9th driven lever 35a.It is connected to the 9th driven shaft 32a in the middle part of 9th driven lever 35a and makes the 9th driven lever 35a
It can be around the 9th driven shaft 32a rotations.The second end (right-hand end) of 9th driven lever 35a connects the 9th spiral tension spring 37a's
Upper end.The lower end of 9th spiral tension spring 37a is fixed on the lower edge of the first actuator 30.9th spiral tension spring 37a pulls the
The second end of nine driven lever 35a so that the 9th driven lever 35a forms biasing.9th spiral tension spring 37a plays bias spring
Effect.In the embodiment shown in fig. 7, it is clockwise so that the 9th driven lever 35a is generated by the 9th spiral tension spring 37a
Biasing, in other words so that the 9th driven lever 35a generates the trend rotated clockwise.The first end of 9th driven lever 35a is (left
Side) sliding block 34a is installed.
Fourth drive member 40c is mounted on the outside of the first side plate 9 of drawer chassis locking member 8, and fourth drive member 40c is located at
Lower position on first side plate 9, the position of the position of fourth drive member 40c and the prepped side mechanism of the second transfer switching equipment 1b
Set correspondence.On 5th actuating arm 5b there is the 4th driven member 33c, the 4th driven member 33c to be articulated with fourth drive member 40c.4th
Only there are one driven shafts on actuator 40c.Fourth drive member 40c is the supporting structure of plate, is abutted against on the first side plate 9.The
The top edge of four actuator 40c turns down horizontal outward with lower edge.4th driven member 33c passes through the 4th driven shaft 32e peaces
On fourth drive member 40c.4th driven shaft 32e pass through fourth drive member 40c, the 4th driven member 33c be connected to the 4th from
The inner opposite end of moving axis 32e, the 4th driven member 33c are positioned at the inside of fourth drive member 40c.The outside of 4th driven shaft 32e
One end is connected to the 4th driven lever 35e.Be connected in the middle part of 4th driven lever 35e the 4th driven shaft 32e make the 4th from
Dynamic lever 35e can be around the 4th driven shaft 32e rotations.The second end (right-hand end) of 4th driven lever 35e connects the 4th spiral
The lower end of tension spring 37e.The upper end of 4th spiral tension spring 37e is fixed on the top edge of fourth drive member 40c.4th spiral tension spring
37e pulls the second end of the 4th driven lever 35e so that the 4th driven lever 35e forms biasing.4th spiral tension spring 37e rises
To the effect of bias spring.In the embodiment shown in fig. 3, it is inverse so that the 4th driven lever 35e is generated by the 4th spiral tension spring 37e
Conterclockwise biasing, in other words so that the 4th driven lever 35e generates the trend rotated counterclockwise.4th driven lever 35e
Second end (right-hand end) the 4th connector 41a is installed.It is driven that 4th connector 41a is rotatably mounted to the 4th
The second end of lever 35e has threaded hole on the 4th connector 41a.
4th connecting rod 62 is elongated, and the first end of the 4th connecting rod 62 is connected to the cunning on the 9th driven lever 35a
Block 34a, sliding block 34a are mounted on the first end (left-hand end) of the 9th driven lever 35a.The second end of 4th connecting rod 62 is connected to
The 4th connector 41a on 4th driven lever 35e.The second end (lower end) of 4th connecting rod 62 has threaded portion (screw thread
Part is not shown), threaded portion is screwed into the threaded hole of the 4th connector 41a so that the 4th connecting rod 62 is connect with the 4th
Head 41a connections.The first end (upper end) of 4th connecting rod 62 forms a sliding slot (with reference to shown in figure 3), the 9th driven lever 35a
On sliding block 34a be embedded in sliding slot so that the first end (left-hand end) of the 9th driven lever 35a is articulated with the 4th connecting rod 62
First end (upper end).4th connecting rod 62 is also tension part, is prevented by inclined by the sliding buffer capacity of sliding block and sliding slot
Movements of the 9th driven lever 35a of spring effect when resetting is set by 62 back transfer of the 4th connecting rod, sliding slot is also simultaneously
Play the role of carrying out stroke adjustment to the 4th connecting rod 62.
5th interlock 17 connects the common side driving mechanism and the second change-over switch electricity of the first transfer switching equipment 1a
The prepped side driving mechanism of device 1b.5th interlock 17 is arranged in the second side, and the 5th interlock is shown in Fig. 4 and Fig. 5
17 structure.5th interlock 17 includes the 5th actuator 40d, the 6th actuator 40g and the 5th connecting rod 65.
5th actuator 40d is mounted on the outside of the second side plate 23 of the first transfer switching equipment 1a, the 5th actuator 40d
The higher position on the second side plate 23, the position of the 5th actuator 40d and the common side of the first transfer switching equipment 1a are driven
The position of motivation structure corresponds to.There is the 5th driven member 33d, the 5th driven member 33d to be articulated with the 5th driving on second actuating arm 4b
Part 40d.There are one driven shafts for tool on 5th actuator 40d.5th actuator 40d is the supporting structure of plate, abuts against second
On side plate 23.The top edge of 5th actuator 40d turns down horizontal outward with lower edge.5th driven member 33d passes through the 5th
Driven shaft 32f is mounted on the 5th actuator 40d.5th driven shaft 32f passes through the 5th actuator 40d, the 5th driven member 33d to connect
It is connected to the inner opposite end of the 5th driven shaft 32f, the 5th driven member 33d is positioned at the inside of the 5th actuator 40d.5th driven shaft
The lateral ends of 32f are connected to the 5th driven lever 35f.Being connected to the 5th driven shaft 32f in the middle part of 5th driven lever 35f makes
Obtaining the 5th driven lever 35f can be around the 5th driven shaft 32f rotation.The first end (left-hand end) of 5th driven lever 35f connects
The upper end of 5th spiral tension spring 37f.The lower end of 5th spiral tension spring 37f is fixed on the lower edge of the 5th actuator 40d.5th
Spiral tension spring 37f pulls the first end of the 5th driven lever 35f so that the 5th driven lever 35f forms biasing.5th spiral is drawn
Spring 37f plays the role of bias spring.In the embodiment shown in fig. 4, the 5th spiral tension spring 37f makes the 5th driven lever
35f generates anticlockwise biasing, in other words so that the 5th driven lever 35f generates the trend rotated counterclockwise.5th from
The second end (right-hand end) of dynamic lever 35f is equipped with the 5th connector 36d.5th connector 36d is pivotally installed
There is threaded hole in the second end of the 5th driven lever 35f, the 5th connector 36d.
6th actuator 40g is mounted on the outside of the second side plate 91 of drawer chassis locking member 8, the 6th actuator 40g
In lower position, the prepped side mechanism of the position of the 6th actuator 40g and the second transfer switching equipment 1b on the second side plate 91
Position correspond to.On 4th disconnection interlocking elements 3d there is the 6th driven member 31d, the 6th driven member 31d to be articulated with the 6th driving
Part 40g.There are one driven shafts for 6th actuator 40g tools.6th actuator 40g is the supporting structure of plate, abuts against the second side
On plate 91.The top edge of 6th actuator 40g turns down horizontal outward with lower edge.6th driven member 31d by the 6th from
Moving axis 32i is mounted on the 6th actuator 40g.6th driven shaft 32i passes through the 6th actuator 40g, the 6th driven member 31d connections
To the inner opposite end of the 6th driven shaft 32i, the 6th driven member 31d is positioned at the inside of the 6th actuator 40g.6th driven shaft
The lateral ends of 32i are connected to the 6th driven lever 35i.Being connected to the 6th driven shaft 32i in the middle part of 6th driven lever 35i makes
Obtaining the 6th driven lever 35i can be around the 6th driven shaft 32i rotation.The second end (right-hand end) of 6th driven lever 35i connects
The upper end of 6th spiral tension spring 37i.The lower end of 6th spiral tension spring 37i is fixed on the lower edge of the 6th actuator 40g.6th
Spiral tension spring 37i pulls the second end of the 6th driven lever 35i so that the 6th driven lever 35i forms biasing.6th spiral is drawn
Spring 37i plays the role of bias spring.In the embodiment shown in fig. 5, the 6th spiral tension spring 37i makes the 6th driven lever
35i generates clockwise biasing, in other words so that the 6th driven lever 35i generates the trend rotated clockwise.6th from
The first end (left-hand end) of dynamic lever 35i is equipped with sliding block 38b.
5th connecting rod 65 is elongated, and the first end of the 5th connecting rod 65 is connected on the 5th driven lever 35f
The second end of five connector 36d, the 5th connecting rod 65 are connected to the sliding block 38b on the 6th driven lever 35i, sliding block 38b installations
In the first end of the 6th driven lever 35i.The first end (upper end) of 5th connecting rod 65 has threaded portion, and (threaded portion is not schemed
Show), threaded portion is screwed into the threaded hole of the 5th connector 36d so that the 5th connecting rod 65 and the 5th connector 36d connect
It connects.The second end (lower end) of 5th connecting rod 65 forms a sliding slot (with reference to shown in figure 5), the cunning on the 6th driven lever 35i
Block 38b is embedded in sliding slot so that the first end (left-hand end) of the 6th driven lever 35i is articulated with the second of the 5th connecting rod 65
It holds (lower end).5th connecting rod 65 is pressure-containing parts, prevents biased spring from making by the sliding buffer capacity of sliding block and sliding slot
By 65 back transfer of the 5th connecting rod, sliding slot is also played simultaneously to for movements of the 6th driven lever 35i when resetting
Five connecting rods 65 carry out the effect of stroke adjustment.
6th interlock 18 connects the prepped side driving mechanism and the second change-over switch electricity of the first transfer switching equipment 1a
The common side driving mechanism of device 1b.6th interlock 18 is arranged in the second side, and the 6th interlock is shown in Fig. 4 and Fig. 5
18 structure.6th interlock 18 includes the 7th actuator 40e, the 8th actuator 40f and the 6th connecting rod 66.
7th actuator 40e is mounted on the outside of the second side plate 23 of the first transfer switching equipment 1a, the 7th actuator 40e
The lower position on the second side plate 23 is located at the lower section of the 5th actuator 40d.The position and first of 7th actuator 40e
The position of the prepped side driving mechanism of transfer switching equipment 1a corresponds to.Second disconnects on interlocking elements 3b with the 7th driven member
31c, the 7th driven member 31c are articulated with the 7th actuator 40e.There are one driven shafts for tool on 7th actuator 40e.7th actuator
40e is the supporting structure of plate, is abutted against on the second side plate 23.The top edge of 7th actuator 40e turns down outward with lower edge
It is horizontal.7th driven member 31c is mounted on by the 7th driven shaft 32g on the 7th actuator 40e.7th driven shaft 32g is worn
The 7th actuator 40e is crossed, the 7th driven member 31c is connected to the inner opposite end of the 7th driven shaft 32g, and the 7th driven member 31c is position
In the inside of the 7th actuator 40e.The lateral ends of 7th driven shaft 32g are connected to the 7th driven lever 35g.7th driven thick stick
The 7th driven shaft 32g is connected in the middle part of bar 35g enables the 7th driven lever 35g around the 7th driven shaft 32g rotations.7th
The first end (left-hand end) of driven lever 35g connects the lower end of the 7th spiral tension spring 37g.The upper end of 7th spiral tension spring 37g is solid
It is scheduled on the top edge of the 7th actuator 40e.7th spiral tension spring 37g pulls the first end of the 7th driven lever 35g so that the
Seven driven lever 35g form biasing.7th spiral tension spring 37g plays the role of bias spring.In the embodiment shown in fig. 4,
7th spiral tension spring 37g makes the 7th driven lever 35g generate clockwise biasing, in other words so that the 7th driven lever
35g generates the trend rotated clockwise.The first end (left-hand end) of 7th driven lever 35g is equipped with sliding block 34b.
8th actuator 40f is mounted on the outside of the second side plate 91 of drawer chassis locking member 8, the 8th actuator 40f
In higher position on the second side plate 91, it is located at the top of the 6th actuator 40g.The position of 8th actuator 40f with second turn
The position for changing the common side mechanism of device for switching 1b corresponds to.There is the 8th driven member 33e, the 8th driven member on 4th actuating arm 4c
33e is articulated with the 8th actuator 40f.There are one driven shafts for 8th actuator 40f tools.8th actuator 40f is the holder of plate
Structure abuts against on the second side plate 91.The top edge of 8th actuator 40f turns down horizontal outward with lower edge.8th from
Moving part 33e is mounted on by the 8th driven shaft 32h on the 8th actuator 40f.8th driven shaft 32h passes through the 8th actuator 40f,
8th driven member 33e is connected to the inner opposite end of the 8th driven shaft 32h, and the 8th driven member 33e is positioned at the 8th actuator 40f
Inside.The lateral ends of 8th driven shaft 32h are connected to the 8th driven lever 35h.It is connected in the middle part of 8th driven lever 35h
8th driven shaft 32h enables the 8th driven lever 35h around the 8th driven shaft 32h rotations.The second of 8th driven lever 35h
(right-hand end) is held to connect the lower end of the 8th spiral tension spring 37h.The upper end of 8th spiral tension spring 37h is fixed on the 8th actuator 40f
Top edge on.8th spiral tension spring 37h pulls the second end of the 8th driven lever 35h so that the 8th driven lever 35h is formed
Biasing.8th spiral tension spring 37h plays the role of bias spring.In the embodiment shown in fig. 5, the 8th spiral tension spring 37h makes
It obtains the 8th driven lever 35h and generates anticlockwise biasing, in other words so that the 8th driven lever 35h generations rotate counterclockwise
Trend.The second end (right-hand end) of 8th driven lever 35h is equipped with the 6th connector 41b.
6th connecting rod 66 is elongated, and the first end of the 6th connecting rod 66 is connected to the cunning on the 7th driven lever 35g
Block 34b, sliding block 34b are mounted on the first end of the 7th driven lever 35g.It is driven that the second end of 6th connecting rod 66 is connected to the 8th
The 6th connector 41b on lever 35h.The second end (lower end) of 6th connecting rod 66 has threaded portion, and (threaded portion is not schemed
Show), threaded portion is screwed into the threaded hole of the 6th connector 41b so that the 6th connecting rod 66 and the 6th connector 41b connect
It connects.The first end (upper end) of 6th connecting rod 66 forms a sliding slot (with reference to shown in figure 4), the cunning on the 7th driven lever 35g
Block 34b is embedded in sliding slot so that the first end (left-hand end) of the 7th driven lever 35g is articulated with the first of the 6th connecting rod 66
It holds (upper end).6th connecting rod 66 is tension part, prevents biased spring from making by the sliding buffer capacity of sliding block and sliding slot
By 66 back transfer of the 6th connecting rod, sliding slot is also played simultaneously to for movements of the 7th driven lever 35g when resetting
Six connecting rods 66 carry out the effect of stroke adjustment.
As previously described, drawer chassis locking member 8 is also a component part of interlocking mechanism.Drawer chassis locking part
Part 8 is connected with several in above-mentioned several interlocks.Fig. 8 and Fig. 9 discloses the conversion of an embodiment according to the present invention
The structure chart of drawer chassis locking member in the interlock of device for switching, Fig. 8 and Fig. 9 mainly disclose drawer chassis locking member
The structure of base portion in 8.As shown previously, drawer chassis locking member 8 is enclosed in the second transfer switching equipment 1b on the whole
Outside, in other words, the second transfer switching equipment 1b is located on drawer chassis locking member 8.The base portion of drawer chassis locking member 8
Divide includes bottom plate 81, special-shaped lever 50, only locking bar 54, rotating bar 51.
Special-shaped lever 50 is hinged on by the first pin 59 on bottom plate 81 in a rotatable way, and special-shaped lever 50 is setting
In the adjacent edges of bottom plate 81.The second end of first follower link 12 is articulated on special-shaped lever 50.Close on bottom plate 81
The place of first pin 59 is equipped with the second gag lever post 58, and the effect of the second gag lever post 58 is that limitation abnormity lever 50 is sold around first
The extreme position of 59 rotation of son.In Fig. 8 and embodiment shown in Fig. 9, the second gag lever post 58 is located at the upper left of the first pin 59
The position of side, the extreme position that thus the second gag lever post 58 can rotate counterclockwise special-shaped lever 50 limit.Only locking bar
54 are hinged on by the second pin 53 on bottom plate 81 in a rotatable way, only locking bar 54 be also provided in bottom plate 81 edge it is attached
Closely.Only one end of spiral tension spring 60 is only locked in second end (right-hand end of the diagram) connection of locking bar 54, only locks the another of spiral tension spring 60
One end is fixed on spring retention posts 56.Spring retention posts 56 are mounted on bottom plate 81.Only lock spiral tension spring 60 plays biasing bullet
The effect of spring.In Fig. 8 and embodiment shown in Fig. 9, only locks spiral tension spring 60 and so that only locking bar 54 generates anticlockwise
Biasing, in other words so that only locking bar 54 generates the trend rotated counterclockwise.Only the first end of locking bar 54 is equipped with third gag lever post
52, third gag lever post 52 is limited to stopping the extreme position that locking bar 54 rotates in the counterclockwise direction.Have on third gag lever post 52
There is limiting slot, by limiting slot, third gag lever post 52 can play supporting role in latched position to stopping locking bar 54, be taken out to shorten
The arm of force on only locking bar 54 is acted on when rotating bar 51 rotates after drawer seat is sealed, to which enhancing stops the sealed intensity of locking bar 54.Turn
Lever 51 is rotatably mounted on drawer chassis locking member 8, and one end of rotating bar 51 forms gear structure, only locking bar
The end of 54 first end and the gear structure of rotating bar 51 are staggered.When only locking bar 54 turns to the gear knot with rotating bar 51
When the parallel direction of structure, only the end of the first end of locking bar 54 is embedded into the between cog of gear structure, and only locking bar 54 and gear are stuck,
The rotation of rotating bar 51 is limited with locked drawer seat locking member 8.When only locking bar 54 turns to the gear structure with rotating bar 51
When tilting angled direction, only the end of the first end of locking bar 54 is exited from the between cog of gear structure, and only locking bar 54 no longer limits
Gear processed, rotating bar 51 can rotate, and drawer chassis locking member 8 unlocks.
During the common side driving mechanism of first transfer switching equipment 1a is switched to closed position by open position.It is logical
The state that the prepped side driving mechanism of the second transfer switching equipment 1b is maintained at disconnection by the 5th interlock 17 is crossed, is passed through simultaneously
First interlock 13 unlocks drawer chassis locking member 8.
Specifically, the common side driving mechanism in the first transfer switching equipment 1a is switched to closed position by open position
During.Refering to what is shown in Fig. 4, the second actuating arm 4b is rotated in a clockwise direction, the 5th driven member 33d is driven to revolve clockwise
Turn, the rotation of the 5th driven member 33d drives the 5th driven shaft 32f rotations, the 5th driven shaft 32f to drive the 5th driven lever 35f
Rotation, the rotation direction of the 5th driven lever 35f is clockwise so that the 5th positions connector 36d reduce, and drive the 5th connection
Bar 65 moves down.Refering to what is shown in Fig. 5, the 5th connecting rod 65 moves down, the 6th driven thick stick is driven by sliding slot and sliding block 38b
Bar 35i rotates counterclockwise.6th driven lever 35i rotates counterclockwise drives the 6th driven shaft 32i to rotate counterclockwise so that the 6th
Driven member 31d also rotates counterclockwise.6th driven member 31d rotations drive the 4th disconnection interlocking elements 3d to rotate clockwise, by non-
Activation point turns to activation point, and the 4th disconnects interlocking elements 3d by the prepped side driving mechanism of the second transfer switching equipment 1b
It is maintained at the state of disconnection.Each spiral tension spring can be after the completion of action so that each driven lever resets.
During the common side driving mechanism of first transfer switching equipment 1a is switched to closed position by open position.Ginseng
It examines shown in Fig. 2, the first actuating arm 4a is rotated in the counterclockwise direction, and the first driven member 33a is driven also to rotate counterclockwise.First is driven
The rotation of part 33a drives first driven shaft 32b rotations, and first driven shaft 32b drives the first driven lever 35b rotations, first from
The rotation direction of dynamic lever 35b is counterclockwise so that the position of the first connector 36a is raised, and drives head rod 61 upward
It is mobile.Refering to what is shown in Fig. 3, head rod 61, which moves up, drives the rotation counterclockwise of T-type lever 11, T-type lever 11 is counterclockwise
Rotation drives the first follower link 12 to rotate clockwise.The special-shaped lever 50 of first follower link 12 and drawer chassis locking member 8
Connection.With reference to shown in figure 8 and Fig. 9, the first follower link 12 rotates clockwise drive 50 counter-clockwise swing of special-shaped lever, drives lock
Only bar 54 rotates clockwise.Only locking bar 54 is clockwise to when tilting angled direction with the gear structure of rotating bar 51,
Only the first end of locking bar 54 is exited from the limiting slot on third gag lever post 52, and only the end of the first end of locking bar 54 from tooth
The between cog of wheel construction exits.Only locking bar 54 no longer limits the rotation to rotating bar 51, and drawer chassis locking member 8 unlocks.Each spiral shell
Revolving tension spring can be after the completion of action so that each driven lever resets.
During the prepped side driving mechanism of first transfer switching equipment 1a is switched to closed position by open position.It is logical
The state that the common side driving mechanism of the second transfer switching equipment 1b is maintained at disconnection by the second interlock 16 is crossed, is passed through simultaneously
Third interlock 14 unlocks drawer chassis locking member 8.
Specifically, the prepped side driving mechanism of the first transfer switching equipment 1a is switched to closed position by open position
In the process.Refering to what is shown in Fig. 2, third actuating arm 5a is rotated in a clockwise direction, the second driven member 33b is driven also to revolve clockwise
Turn.The rotation of second driven member 33b drives second driven shaft 32c rotations, second driven shaft 32c to drive the second driven lever 35c
Rotation, the rotation direction of the second driven lever 35c is clockwise so that the position of the second connector 36b is raised, and drives second to connect
Extension bar 64 moves up.Second connecting rod 64 moves up, and the third driven lever 35d inverse times are driven by sliding slot and sliding block 38a
Needle rotates.Rotation drives third driven member 31b to rotate counterclockwise to third driven lever 35d by third driven shaft 32d counterclockwise.
The 31b rotations of third driven member drive third to disconnect interlocking elements 3c and rotate clockwise (with reference to shown in figure 3).Third disconnects interlocking portion
Part 3c is rotated clockwise, and turns to activation point by non-driven position, third disconnects interlocking elements 3c by the second change-over switch electricity
The common side driving mechanism of device 1b is maintained at the state of disconnection.Each spiral tension spring can be after the completion of action so that each driven thick stick
Bar resets.
During the prepped side driving mechanism of first transfer switching equipment 1a is switched to closed position by open position.Such as
Foregoing, the second connecting rod 64 moves up, and drives third driven lever 35d to revolve counterclockwise by sliding slot and sliding block 38a
Turn.Third driven lever 35d rotates counterclockwise such that third connector 36c is reduced, and third connecting rod 63 is driven to move down.The
Three connecting rods 63 move down, and drive the rotation counterclockwise of T-type lever 11, T-type lever 11 to rotate counterclockwise by sliding slot and sliding block
The first follower link 12 is driven to rotate clockwise.First follower link 12 is connect with the special-shaped lever 50 of drawer chassis locking member 8.
With reference to shown in figure 8 and Fig. 9, the first follower link 12 rotates clockwise drive 50 counter-clockwise swing of special-shaped lever, drives locking rod
54 rotate clockwise.Only locking bar 54 is clockwise to when tilting angled direction with the gear structure of rotating bar 51, is only locked
The first end of bar 54 is exited from the limiting slot on third gag lever post 52, and only the end of the first end of locking bar 54 from gear knot
The between cog of structure exits.Only locking bar 54 no longer limits the rotation to rotating bar 51, and drawer chassis locking member 8 unlocks.Each spiral is drawn
Spring can be after the completion of action so that each driven lever resets.
During the common side driving mechanism of second transfer switching equipment 1b is switched to closed position by open position.It is logical
Cross the state that the prepped side driving mechanism of the first transfer switching equipment 1a is maintained at disconnection by the 6th interlock 18.
Specifically, the common side driving mechanism of the second transfer switching equipment 1b is switched to closed position by open position
In the process.Refering to what is shown in Fig. 5, the 4th actuating arm 4c is rotated in a clockwise direction, the 8th driven member 33e is driven also to revolve clockwise
Turn.The rotation of 8th driven member 33e drives the 8th driven shaft 32h rotations, the 8th driven shaft 32h to drive the 8th driven lever 35h
Rotation, the rotation direction of the 8th driven lever 35h is clockwise so that the position of the 6th connector 41b reduces, and drives the 6th to connect
Extension bar 66 moves down.6th connecting rod 66 moves down, and drives for the 7th driven lever 35g inverse times by sliding slot and sliding block 34b
Needle rotates.Rotation drives the 7th driven member 31c to rotate counterclockwise to 7th driven lever 35g by the 7th driven shaft 32g counterclockwise.
7th driven member 31c rotations drive the second disconnection interlocking elements 3b to rotate clockwise (with reference to shown in figure 4).Second disconnects interlocking portion
Part 3b is rotated along pointer, turns to activation point by non-driven position, second disconnects interlocking elements 3b by the first change-over switch electricity
The prepped side driving mechanism of device 1a is maintained at the state of disconnection.Each spiral tension spring can be after the completion of action so that each driven thick stick
Bar resets.
During the prepped side driving mechanism of second transfer switching equipment 1b is switched to closed position by open position.It is logical
Cross the state that the common side driving mechanism of the first transfer switching equipment 1a is maintained at disconnection by the 4th interlock 15.
Specifically, the prepped side driving mechanism of the second transfer switching equipment 1b is switched to closed position by open position
In the process.Refering to what is shown in Fig. 3, the 5th actuating arm 5b is rotated in a clockwise direction, the 4th driven member 33c is driven also to revolve clockwise
Turn.The rotation of 4th driven member 33c drives the 4th driven shaft 32e rotations, the 4th driven shaft 32e to drive the 4th driven lever 35e
Rotation, the rotation direction of the 4th driven lever 35e is clockwise so that the position of the 4th connector 41a reduces, and drives the 4th to connect
Extension bar 62 moves down.4th connecting rod 62 moves down, and drives for the 9th driven lever 35a inverse times by sliding slot and sliding block 34a
Needle rotates.Rotation drives the 9th driven member 31a to rotate counterclockwise to 9th driven lever 35a by the 9th driven shaft 32a counterclockwise.
9th driven member 31a rotations drive the first disconnection interlocking elements 3a to rotate clockwise (with reference to shown in figure 2).First disconnects interlocking portion
Part 3a is rotated along pointer, turns to activation point by non-driven position, first disconnects interlocking elements 3a by the first change-over switch electricity
The common side driving mechanism of device 1a is maintained at the state of disconnection.Each spiral tension spring can be after the completion of action so that each driven thick stick
Bar resets.
Figure 10 and Figure 11 discloses position in the interlock of the transfer switching equipment of an embodiment according to the present invention and refers to
The structure chart of showing device, Figure 10 show the state of rotating clockwise, and Figure 11 show the state of rotating counterclockwise.As shown, should
Position indicator includes drawer chassis main shaft 20, cam 22, switch mounting 26 and one group of auxiliary switch:First auxiliary switch
21a, the second auxiliary switch 21b and third auxiliary switch 21c.Drawer chassis main shaft 20 and the rotating bar on drawer chassis locking member 8
51 connections, drawer chassis main shaft 20 follow rotating bar 51 to rotate.Cam 22 is sleeved on drawer chassis main shaft 20 and follows drawer chassis main shaft
20 rotations.There are one protrusions on the periphery of cam 22.Switch mounting 26 is arc-shaped, is arranged in the periphery of cam 22.First is auxiliary
Help switch 21a, the second auxiliary switch 21b and third auxiliary switch 21c arranged for interval on switch mounting 26.Cam 22 rotates
When, thereon protrusion can respectively with the first auxiliary switch 21a, the second auxiliary switch 21b and third auxiliary switch 21c wherein
One of contact, be triggered with the auxiliary switch of projection contacts, to carry out corresponding state instruction.Only there are one convex on cam 22
It rises, therefore at some moment, protrusion can only contact with an auxiliary switch and trigger an auxiliary switch.In one embodiment
In, the first auxiliary switch 21a is that isolated location auxiliary switch, the second auxiliary switch 21b are that testing position auxiliary switch, third are auxiliary
It is link position auxiliary switch to help switch 21c.
The position indicator is used to indicate the operating position residing for the second transfer switching equipment 1b.Refering to what is shown in Fig. 10,
The protrusion on cam 22 is contacted with the first auxiliary switch 21a at this time, indicates that the second transfer switching equipment 1b is in isolated bit at this time
It sets, therefore triggers isolated location auxiliary switch.When the second transfer switching equipment 1b needs to be advanced to experiment by isolated location rotation
When position or link position, rotating bar 51 rotates, and drives drawer chassis main shaft 20 and cam 22 to rotate, in implementation shown in Fig. 10
In example, the direction of rotation is clockwise.With the rotation of cam 22, protrusion on cam 22 successively with the second auxiliary switch 21b
It is contacted with third auxiliary switch 21c, triggers two auxiliary switches to indicate that the second transfer switching equipment 1b is in experiment position
It sets and link position.
With reference to shown in figure 11, the protrusion on cam 22 is contacted with third auxiliary switch 21c at this time, indicates the second conversion at this time
Device for switching 1b is in link position, therefore triggers link position auxiliary switch.When the second transfer switching equipment 1b is needed by even
Position rotation is connect when returning to testing position or isolated location, rotating bar 51 rotates, and drives drawer chassis main shaft 20 and cam 22
Rotation, in the embodiment shown in fig. 11, the direction of rotation is counterclockwise.With the rotation of cam 22, the protrusion on cam 22
It is contacted successively with the second auxiliary switch 21b and the first auxiliary switch 21a, triggers two auxiliary switches to indicate that the second conversion is opened
Powered-down device 1b is to be in testing position and isolated location.
Figure 12 and Figure 13 discloses the structure of the interlock of transfer switching equipment according to another embodiment of the present invention
Figure.It equally include a pair of of transfer switching equipment in the embodiment:First transfer switching equipment 1c and the second transfer switching equipment 1d.
First transfer switching equipment 1c is located above, and the second transfer switching equipment 1d is located at lower section, the first transfer switching equipment 1c and
Two transfer switching equipment 1d arrange in a manner of vertical non-alignment, and are installed in a switchgear that (switchgear is not schemed jointly
Show).It does not include drawer chassis locking member in the embodiment.In the embodiment, the conversions of the first transfer switching equipment 1c and second are opened
Respectively only there are one driving mechanisms by powered-down device 1d.That is, the first transfer switching equipment 1c and the second transfer switching equipment 1d
The differentiation of itself not common side and prepped side, only there are one driving mechanisms for each transfer switching equipment.Driving mechanism includes
Shaft, actuating arm and disconnection interlocking elements.Shaft can rotate and actuating arm is driven to rotate, so that transfer switching equipment
Driving mechanism switches between open/close state.Disconnect interlocking elements can activation point and non-driven position it
Between rotate, when disconnect interlocking elements turn to activation point when, transfer switching equipment can be maintained at open/close state,
When disconnection interlocking elements turn to non-driven position, then the state of transfer switching equipment is not influenced.
With reference to shown in figure 12, Figure 12 discloses the structure of the first transfer switching equipment 1c from first direction (right direction).
The driving mechanism of first transfer switching equipment 1c includes:First shaft 2e, the first actuating arm 4e, first disconnect interlocking elements 3e.
First shaft 2e is located in the first transfer switching equipment 1c.First actuating arm 4e is mounted on the first end (right side of the first shaft 2e
End).First shaft 2e rotations drive the first actuating arm 4e rotations, so that the first transfer switching equipment 1c is in cut-off/close shape
It is switched between state.First disconnection interlocking elements 3e is located at the top of the first shaft 2e.First disconnects interlocking elements 3e can
It is rotated between activation point and non-driven position, it, can be by the when the first disconnection interlocking elements 3e turns to activation point
One transfer switching equipment 1c is maintained at open/close state, when the first disconnection interlocking elements 3e turns to non-driven position, then
The state of the first transfer switching equipment is not influenced.
With reference to shown in figure 13, Figure 13 discloses the structure of the second transfer switching equipment 1d from first direction (right direction).
The driving mechanism of second transfer switching equipment 1d includes:Second shaft 2f, the second actuating arm 4d, second disconnect interlocking elements 3f.
Second shaft 2f is located in the second transfer switching equipment 1d.Second actuating arm 4d is mounted on the first end (right side of the second shaft 2f
End).Second shaft 2f rotations drive the second actuating arm 4d rotations, so that the second transfer switching equipment 1d is in cut-off/close shape
It is switched between state.Second disconnection interlocking elements 3f is located at the top of the second shaft 2f.Second disconnects interlocking elements 3f can
It is rotated between activation point and non-driven position, it, can be by the when the second disconnection interlocking elements 3f turns to activation point
Two transfer switching equipment 1d are maintained at open/close state, when the second disconnection interlocking elements 3f turns to non-driven position, then
The state of the second transfer switching equipment is not influenced.
In the case of normal work, at any time, the first transfer switching equipment 1c and the second transfer switching equipment 1d
Among should be only there are one in running order.Interlocking mechanism is mounted on the first transfer switching equipment 1c and the second change-over switch electricity
Between device 1d, interlocking mechanism is by the driving mechanism of the driving mechanism of the first transfer switching equipment 1c and the second transfer switching equipment 1d
It is interlocked, to meet above-mentioned job requirement.In the illustrated embodiment, it is converted in the first transfer switching equipment 1c and second
The interlocking mechanism being arranged between device for switching 1d includes array interlock:First interlock 19a and the second interlock
19b。
The the first actuating arm 4e and the second transfer switching equipment of first interlock 19a the first transfer switching equipments of connection 1c
The second of 1d disconnects interlocking elements 3f.First interlock 19a is arranged in the first side.First interlock 19a includes the first drive
Moving part 30a, the second actuator 30b and head rod 67a.In the second embodiment shown in Figure 12 and Figure 13, the first interlocking
Device 19a and the second interlock 19b shares two actuators:First actuator 30a and the second actuator 30b.
First actuator 30a is mounted on the side plate of the first side of the first transfer switching equipment 1c, the first actuator 30a's
Position is corresponding with the position of driving mechanism of the first transfer switching equipment 1c.With reference to shown in figure 12, have on the first actuating arm 4e
First driven member 33e, the first driven member 33e is articulated with the first actuator 30a.The structure of first actuator 30a and Fig. 6 and Fig. 7
Shown in actuator structure it is identical, tool is there are two driven shaft on the first actuator 30a.First actuator 30a is the branch of plate
Frame structure, on the side plate for abutting against the first side.The top edge of first actuator 30a turns down horizontal outward with lower edge.The
One driven member 33e is mounted on by first driven shaft 32j on the first actuator 30a.First driven shaft 32j passes through the first actuator
30a, the first driven member 33e are connected to the first end that first driven shaft 32j is located inside, and the first driven member 33e is located at first and drives
The inside of moving part 30a.The second end positioned at outside of first driven shaft 32j is connected to the first driven lever 35j.First driven thick stick
First driven shaft 32j is connected in the middle part of bar 35j enables the first driven lever 35j to be rotated around first driven shaft 32j.First
The first end (left-hand end) of driven lever 35j connects the lower end of the first spiral tension spring 37j.The upper end of first spiral tension spring 37j is solid
It is scheduled on the top edge of the first actuator 30a.First spiral tension spring 37j pulls the first end of the first driven lever 35j so that the
One driven lever 35j forms biasing.First spiral tension spring 37j plays the role of bias spring.In the embodiment shown in fig. 12,
First spiral tension spring 37j makes the first driven lever 35j generate clockwise biasing, in other words so that the first driven lever
35j generates the trend rotated clockwise.The second end (right-hand end) of first driven lever 35j is equipped with the first connector 36e.
Second actuator 30b is mounted on the side plate of the first side of the second transfer switching equipment 1d, the second actuator 30b's
Position is corresponding with the position of driving mechanism of the second transfer switching equipment 1d.With reference to shown in figure 13, second disconnects interlocking elements 3f
It is upper that there is the second driven member 31f, the second driven member 31f to be articulated with the second actuator 30b.The drivings of second actuator 30b and first
Part 30a structures having the same, also there are two driven shafts for tool on the second actuator 30b.Second actuator 30b is the holder of plate
Structure, on the side plate for abutting against the second the first sides transfer switching equipment 1d.The top edge of second actuator 30b and lower edge are outside
It turns down horizontal.Second driven member 31f is mounted on by second driven shaft 32l on the second actuator 30b.Second driven shaft
32l passes through the second actuator 30b, the second driven member 31f to be connected to the first end that second driven shaft 32l is located inside, second from
Moving part 31f is located at the inside of the second actuator 30b.The second end that second driven shaft 32l is located at outside is connected to the second driven thick stick
Bar 35l.Be connected in the middle part of second driven lever 35l second driven shaft 32l enable the second driven lever 35l around second from
Moving axis 32l rotations.The second end (right-hand end) of second driven lever 35l connects the upper end of the second spiral tension spring 37l.Second spiral
The lower end of tension spring 37l is fixed on the lower edge of the second actuator 30b.Second spiral tension spring 37l pulls the second driven lever 35l
Second end so that the second driven lever 35l forms biasing.Second spiral tension spring 37l plays the role of bias spring.In Figure 13
Shown in embodiment, the second spiral tension spring 37l makes the second driven lever 35l generate clockwise biasing, in other words
So that the second driven lever 35l generates the trend rotated clockwise.The second end (right-hand end) of second driven lever 35l is equipped with
Sliding block 38c.
Head rod 67a is elongated, and the first end of head rod 67a is connected on the first driven lever 35j
First connector 36e.The second end of head rod 67a is connected to the sliding block 38c on the second driven lever 35l.First connection
There is the first end (upper end) of bar 67a threaded portion (threaded portion is not shown), threaded portion to be screwed into the first connector 36e's
In threaded hole so that head rod 67a is connect with the first connector 36e.Second end (lower end) formation of head rod 67a
One sliding slot (with reference to shown in figure 13), the sliding block 38c on the second driven lever 35l are embedded in sliding slot so that the second driven thick stick
The second end (right-hand end) of bar 35l is articulated with the second end (lower end) of head rod 67a.Head rod 67a is tension portion
Part prevents the second driven lever 35l of biased spring effect when resetting by the sliding buffer capacity of sliding block and sliding slot
Movement also plays the work that stroke adjustment is carried out to head rod 67a simultaneously by head rod 67a back transfers, sliding slot
With.
The the second actuating arm 4d and the first transfer switching equipment of second interlock 19b the second transfer switching equipments of connection 1d
The first of 1c disconnects interlocking elements 3e.Second interlock 19b is arranged in the first side.Second interlock 19b includes the first drive
Moving part 30a, the second actuator 30b and the second connecting rod 67b.Second interlock 19b and the first interlock 19a shares two
Actuator:First actuator 30a and the second actuator 30b.
With reference to shown in figure 12, have third driven member 31e, third driven member 31e hinged on the first disconnection interlocking elements 3e
In the first actuator 30a.Third driven member 31e is mounted on by third driven shaft 32k on the first actuator 30a.Third is driven
Axis 32k passes through the first actuator 30a, third driven member 31e to be connected to the first end that third driven shaft 32k is located inside, third
Driven member 31e is located at the inside of the first actuator 30a.The second end positioned at outside of third driven shaft 32k be connected to third from
Dynamic lever 35k.Third driven shaft 32k is connected in the middle part of third driven lever 35k enables third driven lever 35k around
Three driven shaft 32k rotations.The upper end of second end (right-hand end) the connection third spiral tension spring 37k of third driven lever 35k.Third
The lower end of spiral tension spring 37k is fixed on the lower edge of the first actuator 30a.Third spiral tension spring 37k pulls the driven thick stick of third
The second end of bar 35k so that third driven lever 35k forms biasing.Third spiral tension spring 37k plays the role of bias spring.
In the embodiment shown in fig. 12, third spiral tension spring 37k makes third driven lever 35k generate clockwise biasing,
In other words so that third driven lever 35k generates the trend rotated clockwise.The first end (left-hand end) of third driven lever 35k
Sliding block 34c is installed.
With reference to shown in figure 13, there is the second actuating arm 4d the 4th driven member 33f, the 4th driven member 33f to be articulated with the second drive
Moving part 30b.4th driven member 33f is mounted on by the 4th driven shaft 32m on the second actuator 30b.4th driven shaft 32m is passed through
Second actuator 30b, the 4th driven member 33f is connected to the first end that the 4th driven shaft 32m is located inside, the 4th driven member 33f
Positioned at the inside of the second actuator 30b.The second end that 4th driven shaft 32m is located at outside is connected to the 4th driven lever 35m.The
Being connected to the 4th driven shaft 32m in the middle part of four driven lever 35m enables the 4th driven lever 35m around the 4th driven shaft 32m
Rotation.The first end (left-hand end) of 4th driven lever 35m connects the lower end of the 4th spiral tension spring 37m.4th spiral tension spring 37m
Upper end be fixed on the top edge of the second actuator 30b.4th spiral tension spring 37m pulls the first of the 4th driven lever 35m
End so that the 4th driven lever 35m forms biasing.4th spiral tension spring 37m plays the role of bias spring.Shown in Figure 13
In embodiment, the 4th spiral tension spring 37m makes the 4th driven lever 35m generate clockwise biasing, in other words so that the
Four driven lever 35m generate the trend rotated clockwise.The first end (left-hand end) of 4th driven lever 35m is equipped with the second company
Connector 41c.
Second connecting rod 67b is elongated, and the first end of the second connecting rod 67b is connected on third driven lever 35k
Sliding block 34c.The second end of second connecting rod 67b is connected to the second connector 41c on the 4th driven lever 35m.Second connection
There is the second end (lower end) of bar 67b threaded portion (threaded portion is not shown), threaded portion to be screwed into the second connector 41c's
In threaded hole so that the second connecting rod 67b is connect with the second connector 41c.First end (upper end) formation of second connecting rod 67b
One sliding slot (with reference to shown in figure 12), the sliding block 34c on third driven lever 35k are embedded in sliding slot so that the driven thick stick of third
The first end (left-hand end) of bar 35k is articulated with the first end (upper end) of the second connecting rod 67b.Second connecting rod 67b is tension portion
Part prevents the third driven lever 35k of biased spring effect when resetting by the sliding buffer capacity of sliding block and sliding slot
Movement also plays the work that stroke adjustment is carried out to the second connecting rod 67b simultaneously by the second connecting rod 67b back transfers, sliding slot
With.
During the driving mechanism of first transfer switching equipment 1c is switched to closed position by open position.Pass through first
The driving mechanism of second transfer switching equipment 1d is maintained at the state of disconnection by interlock 19a.Specifically, the first conversion is opened
During the driving mechanism of powered-down device 1c is switched to closed position by open position.With reference to shown in figure 12, the first actuating arm 4e
Rotation drives the first driven member 33e rotations.The rotation of first driven member 33e drives first driven shaft 32j rotations, first driven shaft
32j drives the first driven lever 35j rotations, and the rotation direction of the first driven lever 35j is counterclockwise so that the first connector
The position of 36e increases, and head rod 67a is driven to move up.Head rod 67a is moved up, and passes through sliding slot and sliding block
38a drives the second driven lever 35l to rotate counterclockwise.Rotation passes through second driven shaft 32l bands to second driven lever 35l counterclockwise
Dynamic second driven member 31f rotations.Second driven member 31f rotations drive the second disconnection interlocking elements 3f to be turned to by non-driven position
The driving mechanism of second transfer switching equipment 1d is maintained at the state of disconnection by activation point, the second disconnection interlocking elements 3f.Respectively
A spiral tension spring can be after the completion of action so that each driven lever resets.
During the driving mechanism of second transfer switching equipment 1d is switched to closed position by open position.Pass through second
The driving mechanism of first transfer switching equipment 1c is maintained at the state of disconnection by interlock 19b.Specifically, the second conversion is opened
During the driving mechanism of powered-down device 1d is switched to closed position by open position.With reference to shown in figure 13, the second actuating arm 4d
Rotation drives the 4th driven member 33f rotations.The rotation of 4th driven member 33f drives the 4th driven shaft 32m rotations, the 4th driven shaft
32m drives the 4th driven lever 35m rotations, and the rotation direction of the 4th driven lever 35m is counterclockwise so that the second connector
The position of 41c reduces, and the second connecting rod 67b is driven to move down.Second connecting rod 67b is moved down, and passes through sliding slot and sliding block
34c drives third driven lever 35k to rotate counterclockwise.Rotation passes through third driven shaft 32k bands to third driven lever 35k counterclockwise
Dynamic third driven member 31e rotations.The 31e rotations of third driven member drive the first disconnection interlocking elements 3e to be turned to by non-driven position
The driving mechanism of first transfer switching equipment 1c is maintained at the state of disconnection by activation point, the first disconnection interlocking elements 3e.Respectively
A spiral tension spring can be after the completion of action so that each driven lever resets.
Transfer switching equipment described in above-mentioned first embodiment and second embodiment can be automatic transfer switching electric appliance
ATSE or manual change-over switch electric appliance MTS.The interlock of the transfer switching equipment of the present invention can connect two ATSE, or
Person connects two MTS, or one ATSE and MTS of connection.
The present invention proposes the transfer switching equipment of interlocking, and the interpreter being mutually redundant is formed by two transfer switching equipments
Structure can be switched to another when a transfer switching equipment breaks down wherein and work, it is ensured that power supply is held in time
Continuous property.
Above-described embodiment, which is available to, to be familiar with person in the art to realize or use the present invention, and is familiar with this field
Personnel can make various modifications or variation, thus this to above-described embodiment without departing from the present invention in the case of the inventive idea
The protection domain of invention is not limited by above-described embodiment, and should meet inventive features that claims are mentioned most
On a large scale.