CN109037950A - The stop part and correlation technique of actuator for phase shifter - Google Patents

The stop part and correlation technique of actuator for phase shifter Download PDF

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Publication number
CN109037950A
CN109037950A CN201710429620.0A CN201710429620A CN109037950A CN 109037950 A CN109037950 A CN 109037950A CN 201710429620 A CN201710429620 A CN 201710429620A CN 109037950 A CN109037950 A CN 109037950A
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CN
China
Prior art keywords
stop part
actuator
component
axis
phase shifter
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Pending
Application number
CN201710429620.0A
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Chinese (zh)
Inventor
小C·J·迪克森
J·W·奥伦姆
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TE Connectivity Corp
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Tyco Electronics Corp
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
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Publication date
Application filed by Tyco Electronics Corp filed Critical Tyco Electronics Corp
Priority to CN201710429620.0A priority Critical patent/CN109037950A/en
Publication of CN109037950A publication Critical patent/CN109037950A/en
Pending legal-status Critical Current

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    • HELECTRICITY
    • H01ELECTRIC ELEMENTS
    • H01QANTENNAS, i.e. RADIO AERIALS
    • H01Q3/00Arrangements for changing or varying the orientation or the shape of the directional pattern of the waves radiated from an antenna or antenna system
    • H01Q3/26Arrangements for changing or varying the orientation or the shape of the directional pattern of the waves radiated from an antenna or antenna system varying the relative phase or relative amplitude of energisation between two or more active radiating elements; varying the distribution of energy across a radiating aperture
    • H01Q3/30Arrangements for changing or varying the orientation or the shape of the directional pattern of the waves radiated from an antenna or antenna system varying the relative phase or relative amplitude of energisation between two or more active radiating elements; varying the distribution of energy across a radiating aperture varying the relative phase between the radiating elements of an array

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  • Variable-Direction Aerials And Aerial Arrays (AREA)

Abstract

The present invention relates to the stop part of the actuator for phase shifter and correlation techniques.The stop part is configured to removedly assemble with the actuator, wherein, the stop part is configured to limit the stroke for the component of the actuator being axially movable, the component being axially movable is operably linked to the axis of the actuator, and wherein, the component being axially movable is configured to couple to phase shifter.Correlation technique is related to the method for adjusting the range of the actuator for phase shifter comprising removedly assembles stop part with the actuator.

Description

The stop part and correlation technique of actuator for phase shifter
Technical field
The present invention relates to communication systems and component, and are particularly directed to the electromechanics phase shift used in antenna for base station The actuator of device.More particularly, the present invention relate to the stop part of the actuator of phase shifter and correlation techniques.Correlation technique relates to And adjust the method for being used for the range of actuator of phase shifter.
Background technique
Antenna for base station connects for the fixation and mobile subscriber's transmission radio frequency (" RF ") signal to cellular communication service and from it Receive RF signal.Antenna for base station is the orientation dress concentrated to the RF energy in certain directions transmitting (or receiving from those directions) It sets." gain " of antenna for base station in given directions is the amount of the ability for antenna by RF energy concentration in the specified direction Degree." radiation pattern " of antenna for base station is the compilation of the gain of antenna at all different directions.The radiation pattern of antenna for base station It is usually designed to and serves predefined overlay area, refer to that mobile subscriber can be by antenna for base station and cellular network The geographic area communicated.Antenna for base station can be designed as having the smallest gain in entire predefined overlay area Level, and it is generally desirable to antenna for base station except overlay area with much lower gain level.
Most of antenna for base station have the ability that its radiation pattern is reconfigured from remote location now.For example, having opened Antenna for base station has been sent out, by sending control signal to antenna, such as angle of declination, wave of antenna can be reconfigured from remote location The such setting of beam width and/or azimuth.Usually will enable they have a down dip or " facing upward " angle from remote location change Antenna for base station be known as long-range electric tilting (" RET ") antenna.RET antenna allows wireless carriers by using adjustable Phase shifter in antenna is to influence the radiation pattern that the electromechanical actuator of the radiation pattern of antenna carrys out remote adjustment antenna.
Antenna for base station generally includes the linear battle array of radiating element as such as dipole or crossed dipole radiating element part Column or two-dimensional array.It, can be across radiating element application phase plug in order to change the angle of declination of these antenna.It can be by adjusting edge Setting in the adjustable phase shifter of RF transmission path positioning between each radiating element of radio device and antenna for base station It sets to apply the phase plug.A kind of phase shifter of known type is electromechanical " wiper " phase shifter comprising main printed circuit board and " wiper " printed circuit board that can be rotated on main printed circuit board.This wiper phase shifter usually will be in main printed circuit Received input rf signal is divided into multiple subcomponents at plate, and at least some of these subcomponents are then capacitively coupled to wiper Printed circuit board.These subcomponents of RF signal can return master from wiper printed circuit board capacitive coupling along multiple arcs trace Printed circuit board, wherein each arc has different diameters.Each end of each arc trace may be coupled to radiating element Or the subgroup of radiating element.By physically rotating wiper printed circuit board on main printed circuit board, thus it is possible to vary RF letter Number subcomponent capacitive coupling go back to the position of main printed circuit board, to change path length from phase shifter to radiating element. This change of path length leads to the phase change of the subcomponent of RF signal, and since arc has different radiuses, so It is different along each path phase change experienced.Therefore, above-mentioned wiper phase shifter can be used for each to being applied to The subcomponent of the RF signal of radiating element applies phase plug.Usually used be connected to by mechanical linkage of wiper printed circuit board connects Electromechanical actuator as such as d.c. motor of broom printed circuit board is moved.These actuators are commonly known as RET Actuator, because they have a down dip for applying electronic remote.
Summary of the invention
According to an embodiment of the invention, providing the stop part of the actuator for phase shifter.The stop part can be with structure It causes removedly to assemble with the actuator.The stop part can be configured to limit being axially movable for the actuator (axially-derivable) stroke of component, the component being axially movable are operably linked to the actuator Axis, and the component being axially movable can be configured to be connected to phase shifter.
According to an embodiment of the invention, providing the method for adjusting the range of the actuator for phase shifter.The method It may include removedly assembling stop part with the actuator.The stop part can be configured to limit the actuator The stroke for the component being axially movable, the component being axially movable are operably linked to the axis of the actuator, and The component being axially movable can be configured to be connected to the phase shifter.
Detailed description of the invention
Figure 1A is the perspective view of the antenna for base station including RET actuator of embodiment according to the present invention.
Figure 1B is the schematic plan view of the antenna for base station of Figure 1A, shows three linear arrays of its radiating element.
Fig. 2 is the schematic block diagram for showing the connection between the various parts of the antenna for base station of Figure 1A -1B.
Fig. 3 is the front perspective view for the electromechanical phase shifter of a pair that can be included in the antenna for base station of Figure 1A -1B.
Fig. 4 A is the perspective view of RET actuator and RET stop part, and Fig. 4 B be assembled with it is mounted thereto according to this The perspective view of the RET actuator of the RET stop part of the embodiment of invention.
Specific embodiment
The embodiment of the present invention is discussed in more detail now with reference to attached drawing.
Figure 1A is the perspective view of RET antenna for base station 100.Figure 1B is the schematic plan view of antenna for base station 100, shows it Three linear arrays of radiating element.Fig. 2 be show RET antenna 100 various internal parts and connection therebetween it is schematic Block diagram.It should be noted that the physical location of various elements on antenna is not shown in Fig. 2, but it is depicted as the connection in minimum number Line shows the connection between various elements in the case where intersecting.It will also be understood that the connecting line in Fig. 2 indicates the road for being used for electric signal Diameter (for example, RF transmission line).
A-1B and 2 referring to Fig.1, RET antenna 100 includes multiple linear battle arrays of input/output end port 110, radiating element 130 Column 120 and phase shifter 150 etc..As shown in Figure 1B and 2, antenna 100 includes that a total of three linear array 120 (is labeled as 120-1 To 120-3), each linear array includes five radiating elements 130.It the quantity of linear array 120 and is included in each linear The quantity of radiating element 130 in array 120 can change.
Referring to Fig. 2, it is schematically shown that the company between input/output end port 110, radiating element 130 and phase shifter 150 It connects.Every group of input/output end port 110 and its associated phase shifter 150 may include collaboration feeding network 160.Dotted line frame is used Feeding network 160 is cooperateed with as showing one in Fig. 2.
As schematically illustrated in Figure 2, it can be intersection with the radiating element 130 that " X " being included in each frame is indicated Polarized radiation element 130 (such as+45 °/- 45 ° inclination dipoles) can emit at two cross polarizations and receive RF letter Number.Any other suitable radiating element 130, including such as single dipole radiating element or patch radiation element can be used (including cross polarization patch radiation element).It can be each linear array 120 when using cross polarization radiations element 130 Two collaboration feeding networks 160 are provided, the first collaboration feeding network is in radiating element 130 and first pair of input/output end port 110 Between carrying have first polarization (for example,+45 °) RF signal, second collaboration feeding network in radiating element 130 and second pair Carrying has the RF signal of the second polarization (for example, -45 °) between input/output end port 110, as shown in Figure 2.
As shown in Figure 2, the input port of each phase shifter 150 may be coupled to corresponding in input/output end port 110 One.Each input/output end port 110 may be coupled to radio device (not shown), such as long distance wireless dateline.Each shifting Phase device 150 has five output ports for being connected respectively to one of radiating element 130.Phase shifter 150 can will enter into input/ The RF signal of output port 110 is divided into multiple subcomponents, and can be to the son for the RF signal for being provided to radiating element 130 point Amount applies phase plug.In a typical implementation, the application linear phase of radiating element 130 can be bored.As an example, linear The first radiating element 130 in array 120 can have Y °+2X ° of phase, the second radiating element 130 in linear array 120 It can have Y °+X ° of phase, the third radiating element 130 in linear array 120 can have Y ° of phase, linear array The 4th radiating element 130 in 120 can have Y °-X ° of phase, and the 5th radiating element 130 in linear array 120 It can have Y ° -2X ° of phase, wherein radiating element 130 is with numerical order.Phase shifter 150 equally may be received in spoke The subcomponent for penetrating received RF signal at element 130, applies phase plug to it, then combines subcomponent, and via input/defeated Combined signal is output to radio device by exit port 110.
Each phase shifter 150 shown in Fig. 2 may be implemented as rotation wiper phase shifter.As described below, phase shifter 150 The phase change that assigns to each subcomponent of RF signal can be by physically changing the rotation wiper of each phase shifter 150 The mechanical navigation system of position controls.
Referring to Fig. 3, two phase shifters 150 (itself and the same linear array 120 that can be used to implement such as Fig. 2 are shown It is associated) double rotation wiper phase shifter packages 200.Double rotation wiper phase shifter packages 200 include the first phase shifter 202 and the Two phase shifter 202a.In the description then to Fig. 3, phase shifter 202,202a will be described relative to transmitting signal, so that often A phase shifter can be considered as having an input and five outputs.It will be understood that when phase shifter 202,202a receive signal, that Term changes, and phase shifter will have there are five input and individually output.
As shown in Figure 3, double phase shifters 200 include 210 He of (static) first main printed circuit board of back-to-back arrangement Second main printed circuit board 210a and first, which can be rotated wiper printed circuit board 220 and second, can be rotated wiper printed circuit Plate 220a (wiper printed circuit board 220a is hardly visible in the view of Fig. 3), the wiper printed circuit board is rotationally It is mounted on corresponding main printed circuit board 210, on 210a.Wiper printed circuit board 220,220a can by pivot pin 222 It is pivotally mounted on corresponding main printed circuit board 210, on 210a.Two rotatable wiper printed circuit boards 220,220a can be with Far-end by bracket 224 at them links together.
Wiper printed circuit board 220,220a each be can be rotated on its corresponding main printed circuit board 210,210a By the position control of pitman shaft 228, the end of pitman shaft may be constructed one end of mechanical linkage 226 for position.Mechanical linkage 226 The other end of (not shown) can be connected to RET actuator (for example, list RET actuator, more RET actuators).Position sensor 250 can be set on one in rotatable wiper printed circuit board 220,220a, can be rotated wiper printed circuit to detect The position of plate 220,220a.
Each main printed circuit board 210,210a include multiple transmission line traces 212,214.Transmission line trace 212,214 is big It is arc on body.In some cases, arched transmission lines trace 212,214 can be arranged longer to realize with serpentine pattern Effective length.In the example shown in Figure 3, each main printed circuit board 210,210a tool are there are two arched transmission lines trace 212,214 (trace on printed circuit board 210a is invisible in Fig. 3), wherein the first arched transmission lines trace 212 is along every The periphery setting of a printed circuit board 210,210a, and the second arched transmission lines trace 214 is concentrically disposed at outer transmission line In shorter radius in trace 212.Third transmission line trace 216 on each main printed circuit board 210,210a is by each main print Input pad 230 on printed circuit board 210,210a is connected to the o pads 240 for being not subjected to adjustable phase shift.
Main printed circuit board 210 includes being guided into from the input pad 230 of the adjacent edges of main printed circuit board 210 close to pivot One or more input traces 232 of 222 position of pivot pin.At this location, input trace 232 is divided into two paths.The One path is connected to output trace 216, which is connected to the first o pads 240.Second path is connected to transmission line On trace (invisible in Fig. 3), which is formed on the back side of wiper printed circuit board 220.Wiper printing electricity Transmission line trace on road plate 220 is again divided into two paths (invisible in Fig. 3).First path extends to wiper printing electricity The first arched transmission lines trace (invisible in Fig. 3) on road plate 220, the first arched transmission lines trace are stacked in main printing On interior transmission line trace 214 on circuit board 210.Second path extends to the biography of the second arc on wiper printed circuit board 220 Defeated stitching line (invisible in Fig. 3), the second arched transmission lines trace are stacked in the outer transmission line on main printed circuit board 210 On trace 212.It is coupled to the RF signal on wiper printed circuit board 220 therefore is separated and be coupled to and is stacked in main printed circuit The arched transmission lines trace on transmission line trace 212,214 on plate 210 so that RF signal be coupled to transmission line trace 212, On 214, they are separated again in the transmission line trace.Each end of each transmission line trace 212,214 can couple To corresponding o pads 240.Therefore, the RF signal inputted at input pad 230 is divided into five components, these component quilts It is carried to five o pads 240.It is (coaxial that coaxial cable 260 or other RF transmission line components may be coupled to input pad 230 Cable 260a is also connected to the correspondence input pad on the main printed circuit board 210a of phase shifter 202a).Corresponding coaxial cable 270 or other RF transmission line components may be coupled to each corresponding o pads 240 (coaxial cable 270a can equally couple Correspondence o pads onto the main printed circuit board 210a of phase shifter 202a).
As wiper printed circuit board 220 is mobile, welded as provided by transmission line 212,214 from the input of phase shifter 202 The electric path length of disk 230 to each radiating element 130 changes.For example, as wiper printed circuit board 220 is to moving to left Dynamic, it shortens the o pads 240 from input pad 230 to the left side for being connected to transmission line trace 212, and (it is connected to first Radiating element 130) electric path length, and from input pad 230 to the o pads on the right side for being connected to transmission line trace 212 The electric path length of 240 (it is connected to the second radiating element) increases corresponding amount.These changes of electric path length cause The signal that receives at the o pads 240 of transmission line trace 212 is connected to relative to being for example connected to transmission line trace 216 The phase change of o pads 240.
Second phase shifter 202a can be identical as the first phase shifter 202.As shown in Figure 3, the rotation of phase shifter 202a connects Broom printed circuit board 220a can be controlled by the identical pitman shaft 228 of rotation wiper printed circuit board 220 with phase shifter 202 System.For example, if linear array 120 includes double polarization radiating element 130, usually at each of two cross polarizations place The RF signal of transmitting applies identical phase change.In which case it is possible to use single mechanical linkage 226 controls two The position of wiper printed circuit board 220,220a on phase shifter 202,202a.In other cases, two phase shifters 202, Wiper printed circuit board 220, the 220a of 202a may be coupled to different pitman shafts 228.
As described above, by sending to antenna 100 so that electromechanical actuator adjusts the control of the setting on electromechanical phase shifter 150 Signal processed, can be controlled from remote location RET antenna as such as antenna 100 various physics and/or electrical setting (including The elevation angle).In general, being mentioned for each phase shifter 150 (or being a pair of of phase shifter 150 associated with cross polarization radiations element 130) For individual actuator.The more RET actuators that can be used for controlling multiple and different phase shifters have been proposed recently.
Different phase shifters can have different design and/or size, therefore be connected to the mechanical linkage of different phase shifters Maximum length of stroke may need to be different.Particularly, if mechanical linkage movement has been more than to design for particular phase shifter Defined maximum length of stroke, then phase shifter is likely to be broken.Therefore, the range for adjusting RET actuator 300 is associated to limit Mechanical linkage stroke can be it is beneficial.
Fig. 4 A is the perspective view of RET actuator and RET stop part, and Fig. 4 B be assembled with it is mounted thereto according to this The perspective view of the RET actuator of the RET stop part of the embodiment of invention.
Referring to Fig. 4 A, RET actuator 300 includes a pair of of substrate 310,320, and worm shaft 340 substrate 310,320 it Between extend.
Piston type component (piston) 350 is mounted on worm shaft 340.Piston type component 350 may be coupled to mechanical connect Actuator 300 is connected to phase shifter by one end of bar 228 (referring to Fig. 3), the mechanical linkage.Mechanical linkage 228 can prevent Piston type component 350 in response to worm shaft 340 rotation and rotate.Piston type component 350 can be set internal screw thread with worm screw External screw thread engagement on axis 340.Therefore, piston type component 350 be configured along the pivot center of worm shaft 340 relative to Worm shaft 340 moves axially.Above with reference to described in Fig. 3, the distal end of mechanical linkage 228 may be coupled to phase shifter or a pair of of phase shift The wiper arm of device.Therefore, the rotation of worm shaft 340 can lead to the axial movement of piston type component 350 mounted thereto, and And the axial movement is transmitted to phase shifter via mechanical linkage 228, to rotate the wiper arm of phase shifter.
Motor 360 is mounted on the front of substrate 310.Drive shaft 362 extends from motor 360.Drive shaft 362 may be mounted at On the end of worm shaft 340, therefore it may be used to the rotation of worm shaft 340.Drive shaft 362 can be along first direction (for example, suitable Hour hands) rotation, so that the piston type component 350 on worm shaft 340 is mobile far from 360 ground of motor, and can be in a second direction (for example, counterclockwise) rotation, so that piston type component 350 is mobile towards 360 ground of motor.In this way, turn of drive shaft 362 Dynamic movement can be changed into axial movement by piston type component 350.
When receiving the signal for wishing the phase change in antenna from controller, motor 360 can be started so that snail Bar axis 340 rotates, it is expected until piston type component 350 reaches along the axially driving piston type component 350 of worm shaft 340 Position until, at this time motor 360 deactivate.
According to an embodiment of the invention, stop part 420 can be assembled removedly with RET actuator 300, by piston type The movement limitation of component 350 is in a certain range.In some embodiments, stop part 420 can be removably attached to worm screw Axis 340, as shown in Figure 4 B.For example, stop part 420 can be buckled on worm shaft 340.In other embodiments, Stop part 420 can be removably attached to the other parts of RET actuator 300, for example, substrate 310,320.
The inner surface towards worm shaft 340 of stop part 420, which can be, not to be had threaded, allows 420 sound of stop part Should in worm shaft 340 rotation and rotate.Stop part 420 can be formed by nonmetallic materials (for example, plastics).Stop part 420 It can have different length according to the design/dimensions of phase shifter, and length that can be different to its is color coded.? In some embodiments, stop part 420 can removedly be attached the different-diameter of worm shaft 340 thereon for stop part 420 It is color coded.
Although Fig. 4 A shows the stop part 420 with semi-circular shape, the shape of stop part 420 is without being limited thereto, and And it can change.
In some embodiments, as shown in Figure 4 B, two in the corresponding opposite sides of piston type component 350 Stop part 420 can be assembled removedly with RET actuator 300.However, it is possible to change the quantity of stop part 420.In some realities It applies in example, single stop part 420 can be used, and the single stop part 420 can be removably attached to substrate 310,320 In one.
In some embodiments, stop part 420 can be used during the calibration of RET actuator 300.During calibration, Piston type component 350 can be mobile toward and away from motor 360, until piston type component 350 encounters stop part 420, makes Obtain the full breadth that can verify RET actuator 300.Therefore, the range of RET actuator 300 can be by can by stop part 420 Ground is removed to be assembled with RET actuator 300 to be adjusted.
Above-mentioned RET stop part may be also used on more RET actuators.More RET actuators refer to using one Or two motors activate the RET component of more than two mechanical linkage.
Although above Fig. 3 describes conventional wiper camber phase shifter, the electromechanical phase shifter of many other types is at this It is known in field.It will be understood that actuator disclosed herein is suitable for a variety of different phase shifters.
The present invention is described with reference to the accompanying drawings above.The present invention is not limited to illustrated embodiments;On the contrary, these embodiment purports To those skilled in the art all with the present invention is fully disclosed.In the accompanying drawings, identical appended drawing reference refers to phase always Same element.For the sake of clarity, the thickness of certain components and size may be exaggerated.
This paper use space relative terms describe elements or features as shown in the drawings and another element or spy The relationship of sign.It will be understood that spatially relative term is intended to cover other than orientation shown in the drawings in use or operation Device different orientation.For example, if the device in attached drawing is reversed, be described as be in other elements or features " under " Or the element of " lower section " will be directed to other elements or features " on ".Therefore, exemplary term " under " can cover It is orientated with lower two.Device can orient in other ways, and the opposite description language in space used herein is interpreted accordingly.
Wen Zhong, term " attachment ", " connection ", " interconnection ", " contact ", " installation " etc. can be direct between element or The attachment or contact connect, unless otherwise indicated.In order to succinct and/or clear, can be not described in detail well-known function or Construction.Statement "and/or" includes any and all combinations of one or more associated listed items.
Terms used herein are used only for the purpose of describing specific embodiments, and are not intended to the limitation present invention.When in this theory In use, the terms "include", "comprise", " include " and or " include " specify the feature, operation, element and/or portion in bright book The presence of part, but it is not excluded for the presence or additional of other feature, operation, component, assembly unit and/or combination thereof.

Claims (20)

1. a kind of stop part of the actuator for phase shifter, the stop part be configured to removedly with the actuator group Dress, wherein the stop part is configured to limit the stroke for the component of the actuator being axially movable, described to be axially movable Component be operably linked to the axis of the actuator, and wherein, the component being axially movable is configured to couple to Phase shifter.
2. stop part as described in claim 1, wherein the stop part includes the phase positioned at the component being axially movable Two stop parts in the opposite sides answered.
3. stop part as described in claim 1, wherein the stop part is configured to be removably attached to the actuator Axis, and wherein, the stop part is configured to the axial movement for the component of actuator described in backstop being axially movable.
4. stop part as claimed in claim 3, wherein the stop part is configured on the axis for being buckled in the actuator.
5. stop part as claimed in claim 3, wherein the inner surface towards the axis of the stop part does not have screw thread.
6. stop part as described in claim 1, wherein the stop part is configured to be removably attached to the actuator Shell.
7. stop part as claimed in claim 6, wherein the shell of the actuator includes two substrates, and the axis exists Extend between described two substrates, and
Wherein, the stop part is configured to be removably attached in the substrate one.
8. stop part as described in claim 1, wherein the stop part includes nonmetallic materials.
9. stop part as described in claim 1, wherein length and/or the axis of the stop part for the stop part Diameter be color coded.
10. stop part as described in claim 1, wherein the stop part is configured to the quilt during the calibration of the actuator It uses.
11. a kind of method for the range for adjusting the actuator for phase shifter, comprising:
Stop part is removedly assembled with the actuator, wherein what the stop part was configured to limit the actuator can The stroke of the component of axial movement, the component being axially movable are operably linked to the axis of the actuator, and its In, the component being axially movable is configured to couple to the phase shifter.
12. method as claimed in claim 11, wherein removedly including with actuator assembling by the stop part will Two stop parts are removedly assembled with the actuator, and described two stop parts are located at the component being axially movable Corresponding opposite sides on.
13. method as claimed in claim 11, wherein removedly including with actuator assembling by the stop part will The stop part is removably attached to the axis of the actuator, and wherein, and the stop part is configured to actuating described in backstop The axial movement for the component of device being axially movable.
14. method as claimed in claim 13, wherein the stop part is removably attached to the axis packet of the actuator It includes and is buckled in the stop part on the axis of the actuator.
15. method as claimed in claim 13, wherein the stop part is constructed to respond to the rotation of the axis and rotates.
16. method as claimed in claim 11, wherein removedly including with actuator assembling by the stop part will The stop part is removably attached to the shell of the actuator.
17. the method described in claim 16, wherein the shell of the actuator includes two substrates, and the axis exists Extend between described two substrates, and
Wherein, by the stop part be removably attached to the shell include the stop part is removably attached to it is described One in substrate.
18. method as claimed in claim 11, wherein the stop part includes nonmetallic materials.
19. method as claimed in claim 11, wherein the component being axially movable includes piston type component.
20. method as claimed in claim 11, wherein the axis includes worm shaft.
CN201710429620.0A 2017-06-09 2017-06-09 The stop part and correlation technique of actuator for phase shifter Pending CN109037950A (en)

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Publication number Priority date Publication date Assignee Title
US4721930A (en) * 1986-05-21 1988-01-26 General Dynamics Corp., Space Systems Div. Suspension and drive system for a mechanical RF energy power divider intended for spacecraft applications
CN101596064A (en) * 2009-06-30 2009-12-09 宫雪山 The mosquito net frame of the convenient gathering of energy
CN102122758A (en) * 2010-12-24 2011-07-13 网拓(上海)通信技术有限公司 Base station antenna with electrically adjustable electrical inclination angle and control method thereof
KR20130055183A (en) * 2011-11-18 2013-05-28 주식회사 감마누 Circular trombone line phase-shifter for beam tilt
CN104092018A (en) * 2014-07-02 2014-10-08 京信通信技术(广州)有限公司 Transmission system of simultaneous phase shifting of MIMO tunable antenna
CN106338138A (en) * 2016-10-20 2017-01-18 珠海格力电器股份有限公司 Mounting structure, air conditioner and mounting method for air conditioner
US20170018829A1 (en) * 2015-07-16 2017-01-19 Wha Yu Industrial Co., Ltd. Dielectric slab interlocking device of a phase shifter

Patent Citations (7)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US4721930A (en) * 1986-05-21 1988-01-26 General Dynamics Corp., Space Systems Div. Suspension and drive system for a mechanical RF energy power divider intended for spacecraft applications
CN101596064A (en) * 2009-06-30 2009-12-09 宫雪山 The mosquito net frame of the convenient gathering of energy
CN102122758A (en) * 2010-12-24 2011-07-13 网拓(上海)通信技术有限公司 Base station antenna with electrically adjustable electrical inclination angle and control method thereof
KR20130055183A (en) * 2011-11-18 2013-05-28 주식회사 감마누 Circular trombone line phase-shifter for beam tilt
CN104092018A (en) * 2014-07-02 2014-10-08 京信通信技术(广州)有限公司 Transmission system of simultaneous phase shifting of MIMO tunable antenna
US20170018829A1 (en) * 2015-07-16 2017-01-19 Wha Yu Industrial Co., Ltd. Dielectric slab interlocking device of a phase shifter
CN106338138A (en) * 2016-10-20 2017-01-18 珠海格力电器股份有限公司 Mounting structure, air conditioner and mounting method for air conditioner

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Application publication date: 20181218