WO2016197983A1 - 一种多入多出天线及电子设备 - Google Patents

一种多入多出天线及电子设备 Download PDF

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Publication number
WO2016197983A1
WO2016197983A1 PCT/CN2016/085492 CN2016085492W WO2016197983A1 WO 2016197983 A1 WO2016197983 A1 WO 2016197983A1 CN 2016085492 W CN2016085492 W CN 2016085492W WO 2016197983 A1 WO2016197983 A1 WO 2016197983A1
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Prior art keywords
antenna
circuit board
printed circuit
antennas
mimo
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PCT/CN2016/085492
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English (en)
French (fr)
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卫静
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中兴通讯股份有限公司
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Publication of WO2016197983A1 publication Critical patent/WO2016197983A1/zh

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    • H—ELECTRICITY
    • H01—ELECTRIC ELEMENTS
    • H01Q—ANTENNAS, i.e. RADIO AERIALS
    • H01Q1/00—Details of, or arrangements associated with, antennas
    • H01Q1/52—Means for reducing coupling between antennas; Means for reducing coupling between an antenna and another structure

Definitions

  • the present application relates to, but is not limited to, the field of communications, and in particular, a MIMO (Multiple-Input Multiple-Output) antenna and an electronic device.
  • MIMO Multiple-Input Multiple-Output
  • the product is miniaturized; and MIMO antenna is used as LTE (Long Term Evolution).
  • LTE Long Term Evolution
  • the MIMO antenna simultaneously uses multiple antennas for transmitting and receiving at the transmitting end and the receiving end. Due to the limitation of the size and spatial layout of the whole machine, the electrical distance between the antennas is usually difficult to reach more than two-thirds. The length of one wavelength inevitably causes mutual coupling between the antennas, and according to the antenna design of the related art, the closer the distance between the two antennas is, the better the performance of each antenna at the same frequency is, and the antennas are mutually The more the coupling effect, the lower the isolation, which affects the transmission and reception efficiency of the product and affects the performance of the product.
  • the present application provides a MIMO antenna and an electronic device to solve the problem that the closer the MIMO antenna distance of the related art is coupled, the more serious the coupling effect is.
  • the present application provides a multiple input and multiple output antenna, comprising: a printed circuit board, at least two antenna units disposed on the front side of the printed circuit board, a decoupling member disposed on the printed circuit board, and a rear surface disposed on the printed circuit board a floor; the decoupling member electrically connects two of the at least two antenna elements.
  • the antenna unit is a monopole antenna printed on a printed circuit board.
  • the antenna unit is a stand antenna disposed on a printed circuit board.
  • the antenna unit is a laser direct formed antenna that is laser engraved on a printed circuit board.
  • two antenna units connected by the decoupling member are symmetrically disposed at one end of the printed circuit board;
  • the decoupling member includes a metal frame with a single end opening, and an extended side of the same length as the open end of the metal frame, and the extension side is electrically
  • the antenna unit is connected;
  • the metal frame and the extended edge are printed on the printed circuit board, or printed on a flexible circuit board attached to the printed circuit board.
  • the floor includes a clearance area corresponding to an area on the front side of the printed circuit board where the antenna unit is disposed.
  • the decoupling member cooperates with the floor to form a microstrip line member.
  • the antenna unit is fed by means of perforated layering.
  • the side depth and the length of the extended side of the metal frame are set according to the isolation of the two antenna elements.
  • the present application provides an electronic device including the multiple input and multiple output antennas provided by the present application.
  • the present application provides a MIMO antenna.
  • the decoupling function of the decoupling member is used to reduce the influence of the distance between the antennas on the coupling degree between the antennas, thereby improving the MIMO antenna.
  • the isolation between the two antennas satisfies the requirement of high isolation between the two antennas at a distance while ensuring the radiation efficiency of the antenna, and solves the problem that the isolation between the antennas in the related art MIMO antenna is affected by the antenna distance. Bigger problem.
  • FIG. 1 is a schematic structural diagram of a MIMO antenna according to a first embodiment of the present application
  • FIG. 2 is a front elevational view of a MIMO antenna provided by a second embodiment of the present application.
  • FIG. 3 is a rear view of a MIMO antenna provided by a second embodiment of the present application.
  • FIG. 4 is a schematic diagram of an antenna unit in a second embodiment of the present application.
  • Figure 5 is a schematic view of a decoupling member in a second embodiment of the present application.
  • FIG. 6 shows a return loss of a MIMO antenna in a second embodiment of the present application
  • Figure 7 is a graph showing the isolation of a MIMO antenna in a second embodiment of the present application.
  • Figure 9 is a far field radiation pattern of a MIMO antenna in a second embodiment of the present application.
  • FIG. 1 is a schematic structural diagram of a MIMO antenna according to a first embodiment of the present application.
  • the MIMO antenna provided by the present application includes: a printed circuit board 1 disposed on the front side of the printed circuit board 1 At least two antenna elements 2, a decoupling member 3 disposed on the printed circuit board, and a floor 4 disposed on the back of the printed circuit board; the decoupling member 3 electrically connects the two antenna units 2 of the at least two antenna elements 2.
  • the connection of the decoupling member 3 to the antenna unit 2 can be realized by integrally molding the same metal material during printing, or by connecting a conductive material or the like.
  • the antenna unit 2 in the above embodiment is a monopole antenna printed on a printed circuit board, and the antenna form is explained in the second embodiment.
  • the antenna unit 2 in the above embodiment is a bracket antenna disposed on a printed circuit board.
  • the antenna height can be increased by using the bracket antenna, and the antenna frequency of the antenna can be changed.
  • the interference between the antennas, such as the coupling, can also be achieved.
  • the antenna unit 2 in the above embodiment is a laser direct-formed LDS antenna that is laser-engraved on a printed circuit board.
  • the LDS antenna can be used to directly illuminate the traces on the surface of the structural member, and the height of the antenna can be increased, and the operating frequency of the antenna can be changed, and the mutual interference between the antennas can also be achieved, such as coupling. The inhibitory effect.
  • the two antenna units 2 connected to the decoupling member 3 in the above embodiment are symmetrically disposed at one end of the printed circuit board;
  • the decoupling member 3 includes a metal frame with a single end opening. And an extension side of the same length as the open end of the metal frame, the extension side is electrically connected to the antenna unit; the metal frame and the extended edge are printed on the printed circuit board, or printed on the flexible circuit board pasted with the printed circuit board.
  • the floor panel 4 in the above embodiment includes a clearance area corresponding to an area in which the antenna unit is disposed on the front side of the printed circuit board.
  • the microstrip line structure is not connected to the floor, the front side of the line, the back grounded structure is called a microstrip line structure; therefore, in some embodiments, the decoupling member 3 and the floor in the above embodiment 4 cooperate to form a microstrip line member.
  • the antenna unit 2 in the above embodiment is fed by means of perforated layering.
  • the side depth and the extended side length of the metal frame in the above embodiment are set according to the isolation required between the two antenna elements 2.
  • the present application provides an electronic device that uses the multiple input and multiple output antennas provided by the present application.
  • MIMO antennas are expected to reduce mutual coupling between multiple antennas in a limited space, improve isolation between antennas, and ensure antenna performance.
  • the MIMO antenna provided in this embodiment achieves high isolation between two antennas with close proximity while ensuring the radiation efficiency of the antenna.
  • the return loss S11 between the antennas of the MIMO antenna (the reflection coefficient of the port 1 when the port 2 is matched) and the isolation degree S21 (the forward transmission coefficient of the port 1 to the port 2 when the port 2 is matched) are presented.
  • a negative correlation characteristic that is, the better the return loss S11 of the antenna, the worse the isolation S21 between the two antennas, and the MIMO antenna provided in this embodiment is decoupled by using a microstrip line structure on the PCB.
  • the component realizes a positive correlation between the return loss of the antenna S11 and the isolation S21 in the frequency range of 2.3 GHz to 2.7 GHz, that is, the better the return loss S11 of the two antennas at the same frequency, the mutual The better the isolation S21 between the two, the coupling between the antennas is well suppressed.
  • the MIMO antenna provided in this embodiment includes an antenna unit 21, an antenna unit 22, a dielectric material board 1 as a printed circuit board, a decoupling member 3, and a metal floor 4.
  • the unit 21 and the antenna unit 22 are close to each other and symmetrically distributed at one end of the front side of the dielectric material board 1 to form a PCB antenna array;
  • the dielectric material board 1 is selected from an FR4 dielectric board having a dielectric constant of 4.4;
  • the decoupling member 3 is also printed on the dielectric material board 1 On the front side, directly connected to the PCB antenna array for eliminating the coupling between the antenna unit 21 and the antenna unit 22, so that the antenna units can work independently and can form an antenna array;
  • the metal floor 4 is printed on the dielectric material board 1 On the back side, the area corresponding to the PCB antenna array is hollowed out to form a clearance area, and cooperates with the decoupling member 3 to form a microstrip line structure, and the impedance characteristics between the antennas are
  • both the antenna unit 21 and the antenna unit 22 are in the form of a monopole antenna, and the position of the frequency resonance point is adjusted by changing the size in the direction indicated by a, b, c in the figure to change the return loss S11.
  • the decoupling member 3 is connected to the antenna unit 21 and the antenna unit 22, and forms a partial microstrip line structure with the floor 4.
  • the isolation degree S21 is adjusted by adjusting the length of m, n, so that the isolation S21 and the return loss are obtained.
  • the distribution trend of S11 is positively correlated.
  • the dielectric material board 1 selects an FR4 dielectric board having a dielectric constant of 4.4, and has a size of 60 mm*30 mm*1 mm; referring to the overall example shown in FIG.
  • metal floor 4 printed on the back of FR4 media board the total area of clearance area is 30mm*7mm
  • antenna unit 21 is printed on the front of FR4 media board, the size is 12.5mm*7mm, the width of the trace is 1mm, through the hole
  • the layer unit and the back floor are connected to feed;
  • the antenna unit 22 and the antenna unit 21 are in the same structure and symmetrically distributed at both ends of the clearance area;
  • the decoupling member 3 is symmetrically connected with the antenna unit 21 and the antenna unit 22, and has a size of 5 mm*4 mm. .
  • the result of the return loss of the antenna of the present example it can be seen from the figure that the return loss S11 of the antenna unit 21 and the return loss S22 of the antenna unit 22 are consistent, in the frequency range of 2.3 GHz to 2.7 GHz.
  • the return loss is less than -6dB, showing good performance in this frequency range.
  • Figure 7 is a graph showing the isolation of the two antennas of the present example. Comparing Figure 8 with the isolation curve distribution between the two antennas of the antenna system (i.e., the antenna system of the related art) after removing the decoupling member, it can be seen Therefore, in the working frequency range, the decoupling member does have a good suppression effect on the mutual interference between the two antennas.
  • the far-field radiation pattern of the antenna system in the present example can be seen from the figure, the antenna system has better omnidirectionality.
  • the solution described in this embodiment can suppress the coupling between the antennas by using a decoupling network when the multiple antennas are close to each other and the physical size cannot meet the isolation requirement, so that the antennas are presented in the same working frequency band.
  • Good working characteristics and good isolation have good effects on solving the problem of mutual interference between MIMO antennas, improving spatial layout problems, reducing product size problems, etc., and are simple and easy to apply.
  • the present application provides a MIMO antenna.
  • the decoupling function of the decoupling members is used to reduce the influence of the distance between the antennas on the coupling degree after the antennas, thereby improving the isolation between the multiple antennas.
  • the MIMO antenna provided by the present application achieves high isolation between the two antennas at a distance while ensuring the radiation efficiency of the antenna, and solves the problem that the isolation between the antennas in the related art MIMO antenna is affected by the antenna distance. Bigger problem.
  • the present application provides a MIMO antenna.
  • the decoupling function of the decoupling member is used to reduce the influence of the distance between the antennas on the coupling degree between the antennas, thereby improving the MIMO antenna.
  • the isolation between the two antennas satisfies the requirement of high isolation between the two antennas at a distance while ensuring the radiation efficiency of the antenna, and solves the problem that the isolation between the antennas in the related art MIMO antenna is affected by the antenna distance. Bigger problem.

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Abstract

公开了一种MIMO天线及电子设备，该MIMO天线包括：印刷电路板，设置在印刷电路板正面的至少两个天线单元，设置在印刷电路板的去耦构件，以及设置在印刷电路板背面的地板；去耦构件电连接至少两个天线单元中的两个天线单元。通过上述方案，在天线之间设置去耦构件，通过去耦构件的去耦合作用来降低天线之间距离对天线之后耦合度的影响，进而提高了天线之间的隔离度，在保证天线辐射效率的同时，实现了距离很近的两个天线之间高隔离度的要求，解决了相关技术的MIMO天线中天线之间隔离度受天线距离影响较大的问题。

Description

一种多入多出天线及电子设备 技术领域
本申请涉及但不限于通信领域，特别是一种MIMO(Multiple-Input Multiple-Output，多入多出)天线及电子设备。
背景技术
随着通信技术发展，对于终端产品的设计和性能都有了更高的要求，一方面要保证高速率高性能，另一方面产品小型化；而MIMO天线做为LTE(Long Term Evolution，长期演进技术)终端产品所必需的天线系统，要求在有限空间内降低多个天线之间的相互耦合作用，提高天线之间的隔离度，保证天线的性能。
在相关技术的终端产品中，MIMO天线在发射端和接收端同时使用多个天线进行发射和接收，由于受到整机尺寸、空间布局的限制，天线之间的电气距离通常难以达到大于二分之一波长的长度，不可避免地引起天线之间的相互耦合作用，并且按照相关技术的天线设计，两个天线之间的距离越靠近，相同频率处各个天线的性能越好，则天线相互之间的耦合作用就越严重，隔离度越低，从而影响到产品的发射及接收效率，影响产品的性能。
发明内容
以下是对本文详细描述的主题的概述。本概述并非是为了限制权利要求的保护范围。
本申请提供了一种MIMO天线及电子设备，以解决相关技术的MIMO天线距离越近耦合作用越严重的问题。
本申请提供了一种多入多出天线，其包括：印刷电路板，设置在印刷电路板正面的至少两个天线单元，设置在印刷电路板的去耦构件，以及设置在印刷电路板背面的地板；去耦构件电连接至少两个天线单元中的两个天线单元。
可选地，天线单元为印刷于印刷电路板的单极子天线。
可选地，天线单元为设置在印刷电路板的支架天线。
可选地，天线单元为镭雕在印刷电路板的激光直接成型天线。
可选地，去耦构件连接的两个天线单元对称设置在印刷电路板一端；去耦构件包括单端开口的金属框，以及与金属框的开口端连接的长度相同的延长边，延长边电连接天线单元；金属框及延长边印刷在印刷电路板，或者，印刷在与印刷电路板粘贴的柔性电路板上。
可选地，地板包括净空区域，净空区域与印刷电路板正面设置有天线单元的区域对应。
可选地，去耦构件与地板配合形成微带线构件。
可选地，天线单元通过打孔翻层的方式馈电。
可选地，金属框的侧边深度与延长边长度根据两个天线单元的隔离度设置。
本申请提供了一种电子设备，其包括本申请提供的多入多出天线。
本申请的有益效果：
本申请提供了一种MIMO天线，通过在两个天线之间设置去耦构件，通过去耦构件的去耦合作用来降低天线之间距离对天线之间耦合度的影响，进而提高了MIMO天线中两天线之间的隔离度，在保证天线辐射效率的同时，满足了距离很近的两个天线之间高隔离度的要求，解决了相关技术的MIMO天线中天线之间隔离度受天线距离影响较大的问题。
在阅读并理解了附图和详细描述后，可以明白其他方面。
附图概述
图1为本申请的第一实施例提供的MIMO天线的结构示意图；
图2为本申请的第二实施例提供的MIMO天线的正面视图；
图3为本申请的第二实施例提供的MIMO天线的背面视图；
图4为本申请的第二实施例中的天线单元的示意图；
图5为本申请的第二实施例中的去耦构件的示意图；
图6示出了本申请的第二实施例中的MIMO天线的回波损耗；
图7示出本申请的第二实施例中的MIMO天线的隔离度的曲线；
图8为相关技术的MIMO天线的隔离度曲线图；
图9为本申请的第二实施例中的MIMO天线的远场辐射方向图。
本发明的较佳实施方式
现通过具体实施方式结合附图的方式对本申请做出进一步的诠释说明。
第一实施例：
图1为本申请的第一实施例提供的MIMO天线的结构示意图，由图1可知，在本实施例中，本申请提供的MIMO天线包括：印刷电路板1，设置在印刷电路板1正面的至少两个天线单元2，设置在印刷电路板的去耦构件3，以及设置在印刷电路板背面的地板4；去耦构件3电连接至少两个天线单元2中的两个天线单元2。在实际应用中，去耦构件3电与天线单元2的连接可以在印刷时采用相同金属材料一体成型来实现，或者通过导电材料连接等方式来实现。
在一些实施例中，上述实施例中的天线单元2为印刷于印刷电路板的单极子天线，该天线形式在第二实施例中进行说明。
在一些实施例中，上述实施例中的天线单元2为设置在印刷电路板的支架天线。在实际应用中，在本申请的基础上，可以使用支架天线来增加天线高度，改变天线的工作频率支架天线，同样可以达到对天线之间相互干扰，如耦合的抑制效果。
在一些实施例中，上述实施例中的天线单元2为镭雕在印刷电路板的激光直接成型LDS天线。在实际应用中，在本申请的基础上，可以使用LDS天线将走线直接镭雕在结构件表面，同样可以增加天线高度，改变天线工作频率，同样可以达到对天线之间相互干扰，如耦合的抑制效果。
在一些实施例中，如图1所示，上述实施例中的去耦构件3连接的两个天线单元2对称设置在印刷电路板一端；去耦构件3包括单端开口的金属框， 以及与金属框的开口端连接的长度相同的延长边，延长边电连接天线单元；金属框及延长边印刷在印刷电路板，或者，印刷在与印刷电路板粘贴的柔性电路板上。
在一些实施例中，如图1所示，上述实施例中的地板4包括净空区域，净空区域与印刷电路板正面设置有天线单元的区域对应。
在实际应用中，微带线结构不用与地板连接，正面走线，背面有地的结构称之为微带线结构；因此，在一些实施例中，上述实施例中的去耦构件3与地板4配合形成微带线构件。
在一些实施例中，上述实施例中的天线单元2通过打孔翻层的方式馈电。
在一些实施例中，上述实施例中的金属框的侧边深度与延长边长度根据两个天线单元2之间需要达到的隔离度设置。
对应地，本申请提供了一种电子设备，其使用本申请提供的多入多出天线。
现结合具体应用场景对本申请做进一步的诠释说明。
第二实施例：
MIMO天线作为LTE终端产品所必需的天线系统，期望在有限空间内降低多个天线之间的相互耦合作用，提高天线之间的隔离度，保证天线的性能。
本实施例提供的MIMO天线在保证天线辐射效率的同时，实现了距离很近的两个天线之间高隔离度的要求。在相关技术中，MIMO天线的天线之间的回波损耗S11(端口2匹配时，端口1的反射系数)和隔离度S21(端口2匹配时，端口1到端口2的正向传输系数)呈现出负相关的特性，即天线的回波损耗S11越好，则两个天线之间的隔离度S21就越差，而本实施例提供的MIMO天线在PCB板上采用微带线结构的去耦构件，在2.3GHz—2.7GHz的频段范围内实现了天线的回波损耗S11和隔离度S21之间的正向相关，即两个天线在相同频率下的回波损耗S11越好，其相互之间的隔离度S21也越好，天线之间的耦合作用得到很好的抑制。
如图2及3所示，本实施例提供的MIMO天线包括：天线单元21、天线单元22、作为印刷电路板的介质材料板1、去耦构件3、金属地板4。天线 单元21和天线单元22靠近，并对称分布于介质材料板1正面一端，构成PCB天线阵；介质材料板1选用介电常数为4.4的FR4介质板；去耦构件3也印刷在介质材料板1正面上，与PCB天线阵直接相连，用于消除天线单元21与天线单元22之间的耦合，使各天线单元既能独立工作，又可以组成天线阵工作；金属地板4印刷在介质材料板1的背面，对应PCB天线阵的区域腐蚀挖空，形成净空区域，并与去耦构件3配合组成微带线结构，通过微带线结构改善天线之间的阻抗特性。
参照图4，天线单元21和天线单元22均采用单极子的天线形式，通过改变图中标记为a,b,c的方向上的尺寸来改变回波损耗S11，调整频率谐振点位置。
参照图5，去耦构件3与天线单元21、天线单元22相连接，与地板4构成部分微带线结构，通过调整m，n的长度来调节隔离度S21，使隔离度S21与回波损耗S11的分布趋势呈现正向相关。
参照图2所示的本实例整体布局正面视图，在实际应用中，介质材料板1选择介电常数为4.4的FR4介质板，尺寸为60mm*30mm*1mm；参照图3所示的本实例整体布局背面视图，金属地板4印刷在FR4介质板背面，净空区域总面积为30mm*7mm；天线单元21印刷在FR4介质板正面，尺寸为12.5mm*7mm，走线宽度为1mm，通过打孔翻层方式与背面地板连接馈电；天线单元22与天线单元21采用相同的结构形式，对称分布于净空区域两端；去耦构件3与天线单元21、天线单元22对称连接，尺寸为5mm*4mm。
参照图6，为本实例天线回波损耗的结果，从图中可以看出天线单元21的回波损耗S11和天线单元22的回波损耗S22分布一致，在2.3GHz—2.7GHz的频段范围内回波损耗均小于-6dB，在该频段范围内呈现出较好的工作性能。
图7示出了为本实例两个天线的隔离度的曲线，对比图8去掉去耦构件后的天线系统(即相关技术的天线系统)的两个天线之间的隔离度曲线分布，可以看出，在该工作频段范围内，该去耦构件对于两个天线之间的相互干扰确实起到了较好的抑制作用。
参照图9，为本实例中的天线系统的远场辐射方向图，由图中可以看出，该天线系统具有较好的全向性。
本实施例所描述的方案可以对多天线相互靠近，物理尺寸无法满足隔离度要求的情况下，通过使用去耦网络抑制各天线之间的耦合作用，使得各个天线在相同的工作频段内呈现出较好的工作特性及较好的隔离度，对于解决MIMO天线间的互扰问题，改善空间布局问题，缩减产品尺寸问题等方面均有较好的效果，且简单易行，可应用性强。
综上可知，通过本申请的实施，至少存在以下有益效果：
本申请提供了一种MIMO天线，通过在天线之间设置去耦构件，通过去耦构件的去耦合作用来降低天线之间距离对天线之后耦合度的影响，进而提高了多天线之间的隔离度，本申请提供的MIMO天线在保证天线辐射效率的同时，实现了距离很近的两个天线之间高隔离度的要求，解决了相关技术的MIMO天线中天线之间隔离度受天线距离影响较大的问题。
以上仅是本申请的具体实施方式而已，并非对本申请做任何形式上的限制，凡是依据本申请的技术实质对以上实施方式所做的任意简单修改、等同变化、结合或修饰，均仍属于本申请技术方案的保护范围。
工业实用性
本申请提供了一种MIMO天线，通过在两个天线之间设置去耦构件，通过去耦构件的去耦合作用来降低天线之间距离对天线之间耦合度的影响，进而提高了MIMO天线中两天线之间的隔离度，在保证天线辐射效率的同时，满足了距离很近的两个天线之间高隔离度的要求，解决了相关技术的MIMO天线中天线之间隔离度受天线距离影响较大的问题。

Claims (10)

  1. 一种多入多出天线，包括：印刷电路板，设置在所述印刷电路板正面的至少两个天线单元，设置在所述印刷电路板的去耦构件，以及设置在所述印刷电路板背面的地板；所述去耦构件电连接所述至少两个天线单元中的两个天线单元。
  2. 如权利要求1所述的多入多出天线，其中，所述天线单元为印刷于所述印刷电路板的单极子天线。
  3. 如权利要求1所述的多入多出天线，其中，所述天线单元为设置在所述印刷电路板的支架天线。
  4. 如权利要求1所述的多入多出天线，其中，所述天线单元为镭雕在所述印刷电路板的激光直接成型天线。
  5. 如权利要求1至4任一项所述的多入多出天线，其中，所述去耦构件连接的两个天线单元对称设置在所述印刷电路板一端；所述去耦构件包括单端开口的金属框，以及与所述金属框的开口端连接的长度相同的延长边，所述延长边电连接所述天线单元；所述金属框及所述延长边印刷在所述印刷电路板，或者，印刷在与所述印刷电路板粘贴的柔性电路板上。
  6. 如权利要求5所述的多入多出天线，其中，所述地板包括净空区域，所述净空区域与所述印刷电路板正面设置有天线单元的区域对应。
  7. 如权利要求5所述的多入多出天线，其中，所述去耦构件与所述地板配合形成微带线构件。
  8. 如权利要求5所述的多入多出天线，其中，所述天线单元通过打孔翻层的方式馈电。
  9. 如权利要求5所述的多入多出天线，其中，所述金属框的侧边深度与所述延长边长度根据所述两个天线单元的隔离度设置。
  10. 一种电子设备，包括如权利要求1至9任一项所述的多入多出天线。
PCT/CN2016/085492 2015-10-14 2016-06-12 一种多入多出天线及电子设备 WO2016197983A1 (zh)

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