WO2018072415A1 - 一种新型天线辐射单元 - Google Patents
一种新型天线辐射单元 Download PDFInfo
- Publication number
- WO2018072415A1 WO2018072415A1 PCT/CN2017/080999 CN2017080999W WO2018072415A1 WO 2018072415 A1 WO2018072415 A1 WO 2018072415A1 CN 2017080999 W CN2017080999 W CN 2017080999W WO 2018072415 A1 WO2018072415 A1 WO 2018072415A1
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- WIPO (PCT)
- Prior art keywords
- radiation
- arm
- radiating
- frame arm
- card
- Prior art date
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Classifications
-
- H—ELECTRICITY
- H01—ELECTRIC ELEMENTS
- H01Q—ANTENNAS, i.e. RADIO AERIALS
- H01Q1/00—Details of, or arrangements associated with, antennas
- H01Q1/36—Structural form of radiating elements, e.g. cone, spiral, umbrella; Particular materials used therewith
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- H—ELECTRICITY
- H01—ELECTRIC ELEMENTS
- H01Q—ANTENNAS, i.e. RADIO AERIALS
- H01Q1/00—Details of, or arrangements associated with, antennas
- H01Q1/50—Structural association of antennas with earthing switches, lead-in devices or lightning protectors
-
- H—ELECTRICITY
- H01—ELECTRIC ELEMENTS
- H01Q—ANTENNAS, i.e. RADIO AERIALS
- H01Q15/00—Devices for reflection, refraction, diffraction or polarisation of waves radiated from an antenna, e.g. quasi-optical devices
- H01Q15/14—Reflecting surfaces; Equivalent structures
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- H—ELECTRICITY
- H01—ELECTRIC ELEMENTS
- H01Q—ANTENNAS, i.e. RADIO AERIALS
- H01Q19/00—Combinations of primary active antenna elements and units with secondary devices, e.g. with quasi-optical devices, for giving the antenna a desired directional characteristic
- H01Q19/10—Combinations of primary active antenna elements and units with secondary devices, e.g. with quasi-optical devices, for giving the antenna a desired directional characteristic using reflecting surfaces
Definitions
- the present invention relates to the field of mobile communication base station antennas, and in particular to a novel radiating unit of a broadband dual-polarized antenna.
- the base station antenna is a key component of the mobile communication network, and it not only provides a physical link between the mobile station and the base station, but also an important device in the application of mobile communication technologies such as frequency reuse, diversity reception, and optimized coverage.
- various application technologies have also proposed various performance requirements for the performance of the base station antenna.
- One of the main concerns of mobile communication technology is how to use limited spectrum resources to meet the needs of users, in space and time. This has also led to the emergence of various mobile communication standards, resulting in a situation where multiple standards coexist. Therefore, how to design an antenna that can balance various performances and cover the widest possible frequency band is obviously of great significance.
- As the most basic component of the antenna only the ultra-wideband radiating element with superior performance can meet the higher and higher requirements of the communication industry for the base station antenna.
- An object of the present invention is to overcome the deficiencies of the above techniques and to provide a radiation unit of a novel wideband dual-polarized antenna having high gain and good cross-polarization characteristics.
- the present invention provides a novel antenna radiating unit comprising a vibrator and a reflector, the vibrator comprising a support arm and two mutually intersecting radiating device groups surrounding one end of the support arm, the support arm being away from two One end of the radiation device group is mounted to the reflection plate; each of the radiation device groups includes two connection portions and two radiation devices symmetrically with respect to a center of the support arm, and the two connection portions are respectively formed on the support On both sides of one end of the arm, the two radiating elements are respectively formed on the outer side of the corresponding connecting portion and connected to the supporting arm through a corresponding connecting portion, one of which is used for connecting with one feeding bridge, and the other a connecting portion for connecting to a transmission cable, the feeding bridge being connected to the transmission cable, The transmission cable is fixed to the outside of the support arm.
- the radiation device includes an outer radiation frame arm and an inner radiation frame arm formed outside the corresponding connection portion, the inner radiation frame arm surrounding the inner side of the outer radiation frame arm and external There is a certain distance between the radiation frame arms to form a gap between the outer radiation frame arm and the inner radiation frame arm; a hollow region is formed between the inner radiation frame arm and the corresponding connection portion.
- a vertical radiation arm is disposed between the outer radiation frame arm and the inner radiation frame arm, and one end of the vertical radiation arm is located in the gap and is connected to the outer radiation frame arm and the inner Between the radiating frame arms, the other end protrudes from the outer radiating frame arm and the inner radiating frame arm and extends toward the reflecting plate.
- adjacent radiation devices of the two radiation device groups are connected by a media card
- the media card includes a main body portion and a first card member formed at one end of the main body portion, the main body portion Located at one end of an adjacent radiation device, the first card member is interposed between adjacent radiation devices.
- the media card further includes two second card members and two third card members symmetrically formed at one end of the main body portion with respect to the first card member, and the two third card members respectively Located between the outer side of the corresponding second card member; the two second card members are respectively inserted between the outer radiation frame arm and the inner radiation frame arm of the corresponding radiation device, and the two third card members are respectively inserted It is disposed inside the inner radiation frame arm of the corresponding radiation device.
- the ends of the two third card members respectively form a hook portion, and the hook portion is clamped on the inner radiation frame arm of the corresponding radiation device.
- one of the connecting portions is provided with a connecting member for connecting with the feeding bridge, and the other connecting portion is provided with an inner conductor for the transmission cable to pass through. Through hole.
- the connecting member is welded to one end of the feeding bridge, and the inner conductor is welded to the other end of the feeding bridge.
- a medium is disposed on the connecting member or the inner conductor, and the medium is located between the feeding bridge and the corresponding connecting portion.
- the two connecting portions respectively have a cavity, and the connecting member and the through hole are respectively located in the corresponding concave cavity.
- the radiation unit of the present invention has high gain, good cross-polarization characteristics, and the like, and has a simple structure and composition. Low parts, low cost and easy production.
- FIG. 1 is a schematic diagram of a novel antenna radiating unit according to an embodiment of the present invention.
- FIG. 2 is a top plan view showing the antenna radiating unit of FIG. 1 with the reflecting plate removed;
- FIG. 3 is a bottom view of the antenna radiating unit of FIG. 1 with the reflecting plate removed; [0017] FIG.
- FIG. 4 is a schematic view of a media card of the antenna radiating unit shown in FIG. 2; [0018] FIG.
- FIG. 5 is a top plan view of a vibrator of the antenna radiating element shown in FIG. 2; [0019] FIG.
- FIG. 6 is a bottom view of the vibrator of the antenna radiating unit shown in FIG. 2; [0020] FIG.
- FIG. 7 is a schematic diagram of a feed bridge of the antenna radiating element shown in FIG. 2; [0021] FIG.
- FIG. 8 is a schematic view of a transmission cable of the antenna radiating unit shown in FIG. 2.
- FIG. 9 is a schematic view of a medium of the antenna radiating element shown in FIG. 2.
- the radiation unit of a novel wideband dual-polarized antenna comprises a vibrator 10 and a reflector 1.
- the vibrator 10 includes a support arm 11 and two interdigitated radiating device groups 12 that surround one end of the support arm 11.
- One end of the support arm 11 remote from the two radiation device groups 12 has a screw hole 111 and two positioning pins 112, the screw holes 111 are screwed with screws passing through the reflection plate 1, and the positioning pins 112 are used for the through holes of the reflection plate 1.
- the gap fits to position and fix the vibrator 10 to the reflector 1.
- Each of the radiator groups 12 includes two radiation devices respectively located on both sides of the support arm 11, and the two radiation device groups 12 are deflected by 180 degrees from each other.
- the radiant unit 10 has a VSWR of less than 1.5, and the oscillating ratio is less than 1.5, and the oscillating ratio is less than 1.5. Integrated design for easy installation and production.
- Each of the radiation device groups 12 includes two connection portions 13 and two radiation devices 14 that are symmetric with respect to the center of the support arm 11, and the two connection portions 13 are respectively formed on both sides of one end of the support arm 11, and the two The radiation devices 14 are respectively formed outside the corresponding connecting portions 13 and connected to the support arms 11 through the corresponding connecting portions 13.
- the two radiating device groups 12 are orthogonal to each other, and thus the adjacent radiators of the two radiating device groups 12 The distance between the pieces 14 is equal and easy to produce.
- the four connecting portions 13 of the two radiating device groups 12 are enclosed to form a space.
- the radiation device 14 includes an outer radiation frame arm 141 and an inner radiation frame arm 142 formed outside the corresponding connection portion 13, and the inner radiation frame arm 142 surrounds the inner side of the outer radiation frame arm 141 and the outer radiation frame arm 141. There is a certain distance to form a gap between the outer radiation frame arm 141 and the inner radiation frame arm 142, and a hollow region 144 is formed between the inner radiation frame arm 142 and the corresponding connection portion 13, and the hollow region 144 has a fan-shaped shape.
- the radiating surface of the vibrator 10 has a hollow structure.
- the outer radiation frame arm 141 and the inner radiation frame arm 142 have other shapes such as a fan ring shape and a square shape.
- both the outer radiating frame arm 141 and the inner radiating frame arm 142 are fan-rings close to a 90 degree central angle, and the center of the circle is connected to the support arm 11 through the connecting portion 13.
- a vertical radiating arm 143 is disposed between the outer radiating frame arm 141 and the inner radiating frame arm 142. One end of the vertical radiating arm 143 is located in the gap and is connected between the outer radiating frame arm and the inner radiating frame arm, and the other end is convex.
- the frame arm 141 and the inner radiation frame arm 142 are externally radiated and extend toward the reflection plate 1.
- the vertical radiating arm 143 is disposed between the middle portion of the radially outer side of the inner radiating frame arm 142 and the middle portion of the radially inner side of the outer radiating frame arm 141, and the strength between the outer radiating frame arm 141 and the inner radiating frame arm 142 can be enhanced. Deformation.
- the vertical radiating arm 143, the connecting portion 13 and the support arm 11 are coplanar.
- the adjacent radiation devices 14 of the two radiation device groups 12 are connected by a media card 40.
- the media card 40 includes a main body portion 41 and a first card member formed at one end of the main body portion 41. 42.
- the main body portion 41 is located on one side of the adjacent radiating device 14, and the first card member 42 is interposed between the adjacent radiating devices 14, so that between the adjacent radiating devices 14 of the two radiating device groups 12 can be ensured.
- the distance that is, the distance between adjacent outer radiating frame arms 141.
- the media card 40 further includes two second card members 43 and two third card members 44 that are symmetrically formed with respect to the first card member 42 at one end of the main body portion 41.
- the two third card members 44 are respectively located corresponding to each other.
- the two second card members 43 are respectively inserted between the outer radiation frame arm 141 and the inner radiation frame arm 142 of the corresponding radiation device 14, and the two third card members 44 are respectively inserted into the inner radiation frame arms of the corresponding radiation device 14.
- the inner side of the 142 can ensure the distance between the outer radiating frame arm 141 of the radiating device 14 and the inner radiating frame arm 142.
- the ends of the two third card members 44 respectively form a hook portion 45, and the hook portion 45 is clamped on the inner radiation frame arm 142 of the corresponding radiation device 14, preventing the media card 40 from being detached from the radiation device 14. .
- one of the connecting portions 13 is for connecting to one feeding bridge 20, and the other one
- the connection portion 13 is for connection to a transmission cable 30 for feeding the radiation device group 12.
- one of the connecting portions 13 of each of the radiating device groups 12 is provided with a connecting member 16 for connecting with a feeding bridge 20, and the connecting member 16 is a protruding pin.
- the other connecting portion 16 is provided with a through hole 17 through which the inner conductor 31 of the transmission cable 30 passes.
- the connecting portion 13 includes a fan-shaped main body and an arc-shaped protrusion formed on a radially inner side of the fan-shaped main body.
- the connecting member 16 is disposed on the arc-shaped protrusion, and the through-hole 17 is located in the fan-shaped main body and the arc. Concave raised joints.
- Both ends of the feed bridge 20 have feed bridge through holes 21, respectively, and as shown in FIG. 7, the feed bridge 20 has an elongated shape.
- the connector 16 is clearance-fitted and welded to the feed bridge through-hole 21 at the end of the feed bridge 20 to connect the feed bridge 20 to one of the connections 13.
- the transmission cable 30 includes an inner conductor 31, a dielectric layer 33 surrounding the outer circumference of the inner conductor 31, an outer conductor 32 surrounding the outer periphery of the dielectric layer, and a protective layer 34 surrounding the outer circumference of the outer conductor 32. As shown in Fig. 8, the transmission cable 30 is at the joint. Steps are sequentially formed between the inner conductor 31, the dielectric layer 33, the outer conductor 32, and one end of the protective layer 34.
- the inner conductor 31 is gap-fitted and welded together through the through-hole 17 to the feed bridge through-hole 21 at the other end of the feed bridge 20 to connect the transmission cable 30 with the feed bridge 20. That is, the two through holes 21 at both ends of the feed bridge 20 are gap-fitted and welded to the connecting member 16 and the inner conductor 31, respectively, thereby constituting a feed converter for balancing the current distribution of each of the radiating device groups 12.
- the two connecting portions 13 respectively have a cavity 18, and the connecting member 16 and the through hole 17 are respectively located in the corresponding cavity 18. Convenient connection of each radiation device group 12 to the feed bridge 20 is compact.
- the outer circumference of the support arm 11 is provided with a fitting groove 113. As shown in FIG. 6, the transmission cable 30 is housed in the fitting groove 113, and the outer conductor 32 of the transmission cable 30 is welded to the fitting groove 113, thereby fixing the transmission cable 30. To the outside of the support arm 11.
- a medium 50 is fixedly disposed on the connecting member 16. As shown in FIG. 9, the medium 50 has a medium through hole 51. The medium 50 is gap-fitted with the connecting member 16 through the medium through hole 51, and is located at the feeding bridge 20 and corresponding thereto. Between the connecting portions 13, the one end of the feeding bridge 20 is placed on the medium 50, and the gap between the two is effectively ensured.
- a medium 50 may be fixedly disposed on the inner conductor 31. The medium 50 is gap-fitted with the inner conductor 31 through the medium through hole 51, and is located between the feeding bridge 20 and the corresponding connecting portion 13. The other end of the feed bridge 20 is placed on the medium 50, and the gap between the two can also be ensured.
- the shape of the medium 50 is circular , square and other shapes.
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Abstract
本发明涉及一种新型天线辐射单元,包括振子和反射板,所述振子包括支撑臂以及环绕在支撑臂一端的两个相互交叉的辐射器件组,所述支撑臂的远离两个辐射器件组的一端安装到所述反射板;每个所述辐射器件组包括相对所述支撑臂中心对称的两个连接部和两个辐射器件,所述两个连接部分别形成在所述支撑臂的一端的两侧,所述两个辐射器件分别形成在对应的连接部的外侧并通过对应的连接部连接到所述支撑臂,其中一个连接部用于与一个馈电桥连接,另外一个连接部用于与一个传输电缆连接,所述馈电桥与所述传输电缆连接,所述传输电缆固定到所述支撑臂的外侧。本发明的辐射单元具有高增益、交叉极化特性良好等性能,且结构简单,成本低,易于生产。
Description
一种新型天线辐射单元
技术领域
[0001] 本发明涉及移动通信基站天线领域, 具体的是涉及一种新型的宽频双极化天线 的辐射单元。
背景技术
[0002] 基站天线是移动通信网络的关键部件, 它不仅提供了移动台和基站之间的物理 链接, 同吋也是频率复用, 分集接收, 优化覆盖等移动通信技术应用中的重要 设备。 相应的, 各种应用技术对基站天线的性能也提出了各种不同的性能要求 。 其中移动通信技术最主要关注的一个问题就是如何利用有限的频谱资源, 来 满足用户的需求, 在空间和吋间上的分布。 由此也应运而生出各种移动通信标 准, 产生了多种标准并存的局面。 因此, 如何设计一种能兼顾各项性能, 覆盖 尽量宽频段的天线, 显然具有重要意义。 而作为天线最基本的组成元素, 只有 性能优越的超宽频的辐射单元才能在性能上满足通讯行业对基站天线的越来越 高的要求。
技术问题
问题的解决方案
技术解决方案
[0003] 本发明的目的在于克服上述技术的不足, 提供一种具有高增益、 交叉极化特性 良好的新型宽频双极化天线的辐射单元。
[0004] 本发明提供的一种新型天线辐射单元, 包括振子和反射板, 所述振子包括支撑 臂以及环绕在支撑臂一端的两个相互交叉的辐射器件组, 所述支撑臂的远离两 个辐射器件组的一端安装到所述反射板; 每个所述辐射器件组包括相对所述支 撑臂中心对称的两个连接部和两个辐射器件, 所述两个连接部分别形成在所述 支撑臂的一端的两侧, 所述两个辐射器件分别形成在对应的连接部的外侧并通 过对应的连接部连接到所述支撑臂, 其中一个连接部用于与一个馈电桥连接, 另外一个连接部用于与一个传输电缆连接, 所述馈电桥与所述传输电缆连接,
所述传输电缆固定到所述支撑臂的外侧。
[0005] 进一步地, 所述辐射器件包括形成在对应的所述连接部外侧的外辐射框臂和内 辐射框臂, 所述内辐射框臂围绕在所述外辐射框臂的内侧且与外辐射框臂之间 具有一定的距离从而在外辐射框臂、 内辐射框臂之间形成间隙; 所述内辐射框 臂与对应的所述连接部之间形成一中空区域。
[0006] 进一步地, 所述外辐射框臂与所述内辐射框臂之间设有垂直辐射臂, 所述垂直 辐射臂的一端位于所述间隙内且连接在所述外辐射框臂与内辐射框臂之间, 另 一端凸出于所述外辐射框臂和内辐射框臂, 且朝向所述反射板延伸。
[0007] 进一步地, 所述两个辐射器件组的相邻的辐射器件之间通过一介质卡连接, 所 述介质卡包括主体部以及形成在主体部一端的第一卡件, 所述主体部位于相邻 的辐射器件的一端, 所述第一卡件插设在相邻的辐射器件之间。
[0008] 进一步地, 所述介质卡还包括形成在主体部一端的相对所述第一卡件对称的两 个第二卡件和两个第三卡件, 所述两个第三卡件分别位于对应的所述第二卡件 的外侧; 所述两个第二卡件分别插设在对应辐射器件的外辐射框臂与内辐射框 臂之间, 所述两个第三卡件分别插设在对应辐射器件的内辐射框臂的内侧。
[0009] 进一步地, 所述两个第三卡件的端部分别形成钩部, 所述钩部卡设在对应辐射 器件的内辐射框臂上。
[0010] 进一步地, 每个所述辐射器件组中, 其中一个连接部设有用于与所述馈电桥连 接的连接件, 另外一个连接部设有供所述传输电缆的内导体穿过的通孔。
[0011] 进一步地, 所述连接件焊接到所述馈电桥的一端, 所述内导体焊接到所述馈电 桥的另一端。
[0012] 进一步地, 所述连接件或所述内导体上套设一介质, 所述介质位于所述馈电桥 与对应的所述连接部之间。
[0013] 进一步地, 其中一个所述辐射器件组中, 两个连接部分别具有凹腔, 所述连接 件和所述通孔分别位于对应的所述凹腔内。
发明的有益效果
有益效果
[0014] 本发明的辐射单元具有高增益、 交叉极化特性良好等性能, 且结构简单, 组成
部件少, 成本低, 易于生产。
对附图的简要说明
附图说明
[0015] 图 1为本发明一实施例提供的一种新型天线辐射单元的示意图;
[0016] 图 2是图 1所示天线辐射单元去掉反射板的俯视示意图;
[0017] 图 3是图 1所示天线辐射单元去掉反射板的仰视示意图;
[0018] 图 4是图 2所示天线辐射单元的介质卡的示意图;
[0019] 图 5是图 2所示天线辐射单元的振子的俯视示意图;
[0020] 图 6是图 2所示天线辐射单元的振子的仰视示意图;
[0021] 图 7是图 2所示天线辐射单元的馈电桥的示意图;
[0022] 图 8是图 2所示天线辐射单元的传输电缆的示意图
[0023] 图 9是图 2所示天线辐射单元的介质的示意图。
本发明的实施方式
[0024] 下面结合附图和实施例对本发明作进一步的描述。
[0025] 参考图 1、 图 2和图 3, 本发明提供的一种新型的宽频双极化天线的辐射单元, 包括振子 10和反射板 1。 振子 10包括支撑臂 11及环绕在支撑臂 11一端的两个相互 交叉的辐射器件组 12。 支撑臂 11的远离两个辐射器件组 12的一端具有螺孔 111和 两个定位销 112, 螺孔 111与穿过反射板 1的螺钉螺纹连接, 定位销 112用于与反 射板 1的通孔间隙配合, 从而将振子 10定位、 固定安装到反射板 1。 每个辐射器 件组 12包括分别位于支撑臂 11两侧的两个辐射器件, 该两个辐射器件组 12互相 之间偏转 180度。 两个辐射器件组 12分别对应天线的两个极化, 使得辐射单元具 有高增益、 交叉极化特性良好等性能, 在将近 32%的频带范围内其驻波比小于 1. 5, 且振子 10采用一体化设计, 易于安装和生产。
[0026] 每个辐射器件组 12包括相对支撑臂 11中心对称的两个连接部 13和两个辐射器件 14, 该两个连接部 13分别形成在支撑臂 11的一端的两侧, 该两个辐射器件 14分 别形成在对应的连接部 13的外侧并通过对应的连接部 13连接到支撑臂 11。 本实 施例中, 两个辐射器件组 12相互正交, 因而两个辐射器件组 12的相邻的辐射器
件 14之间的距离相等, 易于生产。 两个辐射器件组 12的四个连接部 13之间围合 形成一空间。
[0027] 辐射器件 14包括形成在对应的连接部 13外侧的外辐射框臂 141和内辐射框臂 142 , 内辐射框臂 142围绕在外辐射框臂 141的内侧且与外辐射框臂 141之间具有一定 的距离从而在外辐射框臂 141、 内辐射框臂 142之间形成间隙, 内辐射框臂 142与 对应的连接部 13之间形成一中空区域 144, 中空区域 144的形状为扇环形, 因而 振子 10的辐射面呈中空结构。 本实施例中, 外辐射框臂 141和内辐射框臂 142的 形状为扇环形、 方形等其他形状。 优选地, 外辐射框臂 141和内辐射框臂 142都 为接近 90度圆心角的扇环状, 且圆心位置都通过连接部 13连接到支撑臂 11。
[0028] 外辐射框臂 141与内辐射框臂 142之间设有垂直辐射臂 143, 垂直辐射臂 143的一 端位于间隙内且连接在外辐射框臂与内辐射框臂之间, 另一端凸出于外辐射框 臂 141和内辐射框臂 142, 且朝向反射板 1延伸。 垂直辐射臂 143设置在内辐射框 臂 142径向外侧的中部与外辐射框臂 141径向内侧的中部之间, 可以加强外辐射 框臂 141与内辐射框臂 142之间的强度, 不会变形。 优选地, 垂直辐射臂 143、 连 接部 13以及支撑臂 11共面。
[0029] 两个辐射器件组 12的相邻的辐射器件 14之间通过一介质卡 40连接, 结合图 4所 示, 介质卡 40包括主体部 41以及形成在主体部 41一端的第一卡件 42, 主体部 41 位于相邻的辐射器件 14的一侧, 第一卡件 42插设在相邻的辐射器件 14之间, 可 以保证两个辐射器件组 12的相邻的辐射器件 14之间的距离, 也就是相邻的外辐 射框臂 141之间的距离。
[0030] 介质卡 40还包括形成在主体部 41一端的相对第一卡件 42对称的两个第二卡件 43 和两个第三卡件 44, 两个第三卡件 44分别位于对应的第二卡件 43的外侧。 两个 第二卡件 43分别插设在对应辐射器件 14的外辐射框臂 141与内辐射框臂 142之间 , 两个第三卡件 44分别插设在对应辐射器件 14的内辐射框臂 142的内侧, 可以保 证辐射器件 14的外辐射框臂 141与内辐射框臂 142之间的距离。
[0031] 本实施例中, 两个第三卡件 44的端部分别形成钩部 45, 钩部 45卡设在对应辐射 器件 14的内辐射框臂 142上, 防止介质卡 40脱离辐射器件 14。
[0032] 每个辐射器件组 12中, 其中一个连接部 13用于与一个馈电桥 20连接, 另外一个
连接部 13用于与一个传输电缆 30连接, 传输电缆 30用于对辐射器件组 12实现馈 电。
[0033] 具体的, 结合图 5所示, 每个辐射器件组 12中, 其中一个连接部 13设有连接件 1 6, 用于与一个馈电桥 20连接, 连接件 16为一凸出销, 另外一个连接部 16设有通 孔 17供传输电缆 30的内导体 31穿过。
[0034] 本实施例中, 连接部 13包括扇环形主体及形成在扇环形主体径向内侧的弧形凸 起, 连接件 16设置在弧形凸起上, 通孔 17位于扇环形主体与弧形凸起连接处。
[0035] 馈电桥 20的两端分别具有馈电桥通孔 21, 如图 7所示, 馈电桥 20的形状为长条 形。 连接件 16与馈电桥 20—端的馈电桥通孔 21间隙配合且焊接在一起, 以将馈 电桥 20与其中一个连接部 13连接在一起。 传输电缆 30包括内导体 31、 环绕在内 导体 31外周的介质层 33、 环绕在介质层外周的外导体 32及环绕在外导体 32外周 的保护层 34, 如图 8所示, 传输电缆 30在接头处的内导体 31、 介质层 33、 外导体 32和保护层 34的一端之间依次形成台阶。 内导体 31穿过通孔 17与馈电桥 20另一 端的馈电桥通孔 21间隙配合且焊接在一起, 以将传输电缆 30与馈电桥 20连接在 一起。 即, 馈电桥 20两端的两个通孔 21分别与连接件 16、 内导体 31间隙配合并 焊接, 从而构成馈电变换器, 使每个辐射器件组 12的电流分布平衡。
[0036] 本实施例中, 还是结合图 5所示, 其中一个辐射器件组 12中, 两个连接部 13分 别具有凹腔 18, 连接件 16和通孔 17分别位于对应的凹腔 18内, 方便每个辐射器 件组 12与馈电桥 20的连接, 结构紧凑。
[0037] 支撑臂 11的外周设有装配槽 113, 如图 6所示, 传输电缆 30容纳于装配槽 113内 , 且传输电缆 30的外导体 32焊接到装配槽 113, 从而将传输电缆 30固定到支撑臂 11的外侧。
[0038] 连接件 16上固定套设一介质 50, 如图 9所示, 介质 50具有介质通孔 51, 介质 50 通过介质通孔 51与连接件 16间隙配合, 并位于馈电桥 20与对应的连接部 13之间 , 使馈电桥 20的一端搁置在介质 50上, 有效保证了两者之间的间隙。 在另一种 替换方案中, 也可以是内导体 31上固定套设一介质 50, 介质 50通过介质通孔 51 与内导体 31间隙配合, 并位于馈电桥 20与对应的连接部 13之间, 使馈电桥 20的 另一端搁置在介质 50上, 同样可以保证两者之间的间隙。 介质 50的形状为圆形
、 方形等形状。
以上实施例仅表达了本发明的优选实施方式, 其描述较为具体和详细, 但并不 能因此而理解为对本发明专利范围的限制。 应当指出的是, 对于本领域的普通 技术人员来说, 在不脱离本发明构思的前提下, 还可以做出若干变形和改进, 如对各个实施例中的不同特征进行组合等, 这些都属于本发明的保护范围。
Claims
[权利要求 1] 一种新型天线辐射单元, 包括振子和反射板, 其特征在于: 所述振子 包括支撑臂以及环绕在支撑臂一端的两个相互交叉的辐射器件组, 所 述支撑臂的远离两个辐射器件组的一端安装到所述反射板; 每个所述 辐射器件组包括相对所述支撑臂中心对称的两个连接部和两个辐射器 件, 所述两个连接部分别形成在所述支撑臂的一端的两侧, 所述两个 辐射器件分别形成在对应的连接部的外侧并通过对应的连接部连接到 所述支撑臂, 其中一个连接部用于与一个馈电桥连接, 另外一个连接 部用于与一个传输电缆连接, 所述馈电桥与所述传输电缆连接, 所述 传输电缆固定到所述支撑臂的外侧。
[权利要求 2] 根据权利要求 1所述的新型天线辐射单元, 其特征在于: 所述辐射器 件包括形成在对应的所述连接部外侧的外辐射框臂和内辐射框臂, 所 述内辐射框臂围绕在所述外辐射框臂的内侧且与外辐射框臂之间具有 一定的距离从而在外辐射框臂、 内辐射框臂之间形成间隙; 所述内辐 射框臂与对应的所述连接部之间形成一中空区域。
[权利要求 3] 根据权利要求 2所述的新型天线辐射单元, 其特征在于: 所述外辐射 框臂与所述内辐射框臂之间设有垂直辐射臂, 所述垂直辐射臂的一端 位于所述间隙内且连接在所述外辐射框臂与内辐射框臂之间, 另一端 凸出于所述外辐射框臂和内辐射框臂, 且朝向所述反射板延伸。
[权利要求 4] 根据权利要求 2所述的新型天线辐射单元, 其特征在于: 所述两个辐 射器件组的相邻的辐射器件之间通过一介质卡连接, 所述介质卡包括 主体部以及形成在主体部一端的第一卡件, 所述主体部位于相邻的辐 射器件的一侧, 所述第一卡件插设在相邻的辐射器件之间。
[权利要求 5] 根据权利要求 4所述的新型天线辐射单元, 其特征在于: 所述介质卡 还包括形成在主体部一端的相对所述第一卡件对称的两个第二卡件和 两个第三卡件, 所述两个第三卡件分别位于对应的所述第二卡件的外 侧; 所述两个第二卡件分别插设在对应辐射器件的外辐射框臂与内辐 射框臂之间, 所述两个第三卡件分别插设在对应辐射器件的内辐射框
臂的内侧。
[权利要求 6] 根据权利要求 5所述的新型天线辐射单元, 其特征在于: 所述两个第 三卡件的端部分别形成钩部, 所述钩部卡设在对应辐射器件的内辐射 框臂上。
[权利要求 7] 根据权利要求 1所述的新型天线辐射单元, 其特征在于: 每个所述辐 射器件组中, 其中一个连接部设有用于与所述馈电桥连接的连接件, 另外一个连接部设有供所述传输电缆的内导体穿过的通孔。
[权利要求 8] 根据权利要求 7所述的新型天线辐射单元, 其特征在于: 所述连接件 焊接到所述馈电桥的一端, 所述内导体焊接到所述馈电桥的另一端。
[权利要求 9] 根据权利要求 8所述的新型天线辐射单元, 其特征在于: 所述连接件 或所述内导体上套设一介质, 所述介质位于所述馈电桥与对应的所述 连接部之间。
[权利要求 10] 根据权利要求 7所述的新型天线辐射单元, 其特征在于: 其中一个所 述辐射器件组中, 两个连接部分别具有凹腔, 所述连接件和所述通孔 分别位于对应的所述凹腔内。
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CN106450696A (zh) * | 2016-10-20 | 2017-02-22 | 深圳国人通信股份有限公司 | 一种新型天线辐射单元 |
CN206098688U (zh) * | 2016-10-20 | 2017-04-12 | 深圳国人通信股份有限公司 | 一种新型天线辐射单元 |
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CN104143686A (zh) * | 2013-05-10 | 2014-11-12 | 中国电信股份有限公司 | 双极化辐射单元和天线 |
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CN106025523A (zh) * | 2016-08-09 | 2016-10-12 | 武汉虹信通信技术有限责任公司 | 一种十字型结构辐射单元及其天线阵列 |
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