CN101427422A - 用于无线网络的毫米波片透镜阵列天线系统 - Google Patents
用于无线网络的毫米波片透镜阵列天线系统 Download PDFInfo
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Abstract
描述了片透镜阵列天线系统的一些实施例。在一些实施例中,片透镜阵列天线系统(100)包括毫米波透镜(104);以及片阵列天线(102),用于生成毫米波信号,并引导其通过所述毫米波透镜(104),供随后发射。
Description
相关申请
本专利申请涉及同时在俄罗斯受理局递交的,代理机构文号为884.H17US1(P23947)的,目前未决的专利PCT申请。
技术领域
本发明的一些实施例涉及使用毫米波信号的无线通信系统。一些实施例涉及天线系统。
背景技术
许多常规无线网络用通常在2GHz和10GHz之间的微波频率进行通信。这些系统一般采用全向或低方向性天线,主要是因为所用波长较长。这些天线的低方向性会限制这些系统的吞吐量。定向天线能够提高这些系统的吞吐量,但是,微波的波长使得紧凑的定向天线很难实现。毫米波频带可能有可用的频谱,并且能够提供更高吞吐量。
因此,一般而言,存在对紧凑的适合无线通信网络的定向毫米波天线和天线系统的一般需求。还存在对能够提高无线网络吞吐量的紧凑的定向毫米波天线和天线系统的一般需求。
附图说明
图1A和1B说明本发明一些实施例中的片透镜(chip-lens)阵列天线系统;
图2A和2B说明本发明一些实施例中的片透镜阵列天线系统;
图3说明本发明一些正割平方(secant-squared)实施例中的片透镜阵列天线系统;
图4A和4B说明本发明一些全填充(fully-filled)实施例中的片透镜阵列天线系统;
图5说明本发明一些多扇区实施例中的片透镜阵列天线系统;以及
图6说明本发明一些实施例中的毫米波通信系统。
具体实施方式
以下描述和附图充分说明本发明的具体实施例,以便本领域技术人员能够实践它们。其它实施例可能结合结构、逻辑、电气、工艺和其它改变。这些实例仅仅给出典型的可能变化。各个组件和功能是可选的,除非明确是必需的,而且操作顺序可能变化。一些实施例的一些部分和特征可以包括在其它实施例中的那些里,或者替换其它实施例中的那些。权利要求中给出的本发明的实施例包含权利要求的所有可能等同替换。在这里将本发明的实施例单独或一起称为“发明”仅仅是为了方便起见,不是要将这一申请的范围局限于任何单个发明或发明思想,如果事实上公开了一个以上的。
图1A和1B说明本发明一些实施例中的片透镜阵列天线系统。片透镜阵列天线系统100包括片阵列天线102和毫米波透镜104。图1A是片透镜阵列天线系统100的顶视图,图1B是片透镜阵列天线系统100的侧视图。片透镜阵列天线系统100可以在第一面115内产生发散波束110,在第二面117内产生基本不发散的波束112。
片阵列天线102产生毫米波信号的入射波束,并将其引导到通过毫米波透镜104,供随后发射给用户设备。毫米波透镜104具有内表面106和外表面108,它们的曲率被选择成在第一面115内提供发散波束110,在第二面117内提供基本不发散的波束112。在这些实施例中,片阵列天线102引导的毫米波信号入射波束可以被看成在第二面117内被挤压,在第一面115内保持不变。
在一些实施例中,内表面106在第一面115中可以由基本圆形的弧线126限定,在第二面117内由基本圆形的弧线136限定。在图1A和1B所示的实施例中,外表面108在第一面115中可以由基本圆形的弧线128限定,在第二面117中由椭圆形弧线138限定。在这些实施例中,当第一面115内和第二面117内都是由基本圆形的弧线限定的时候,内表面106可以包括基本球形的内表面,虽然本发明的范围不限于这一方面。
在一些实施例中,第一面115可以是水平面,第二面117可以是垂直面,发散波束110可以是水平面中的扇形波束。在一些实施例中,片阵列天线102可以在垂直面内产生较宽的入射波束103,在水平面内产生较窄的入射波束113,入射到毫米波透镜104内表面106上。较宽的入射波束103可以被毫米波透镜104转换成基本上不发散的波束112,较窄的入射波束113可以被毫米波透镜104转换成发散波束110。
在图1A和1B所示的实施例中,当外表面108由第一面115中基本圆形的弧线128限定时,发散波束110和绞窄入射波束113可能具有近似相等的波束宽度。例如,在一些实施例中,垂直面117中较宽的入射波束103可能具有如图1B所示的60度波束宽度,而水平面115内较窄的入射波束113可能具有图1A所示30度的波束宽度。虽然本发明的范围不限于这一方面。在这些实施例中,较宽的入射波束103,以及较窄的入射波束113,都可以是发散波束。在水平面115中,毫米波透镜104对绞窄入射波束113可能没有多少影响或者毫无影响,将绞窄入射波束113画成具有30度的波束宽度,以便提供发散波束110,发散波束110也具有30度的波束宽度。在垂直面117中,毫米波透镜104可以将较宽的入射波束103转换成基本不发散的波束112。
在一些实施例中,较宽入射波束103和绞窄入射波束113的波束宽度可以是指扫描角,片透镜阵列天线102在这个扫描角内将入射波束引导到毫米波透镜104。这些实施例可以支持在水平面内进行大角度扫描。水平面内的扫描角和波束宽度都可以由片阵列天线102的尺寸决定,而垂直面内的波束宽度则主要由毫米波透镜104的垂直孔径决定。
在一些实施例中,片透镜天线102可以将入射波束扫描或操纵(steer)在毫米波透镜104内,将波束110和112扫描或操纵在毫米波透镜104以外,虽然本发明的范围不限于这一方面。下面更加详细地讨论这些实施例。
在一些实施例中,抗反射层107可以被设置在毫米波透镜104的内表面106上,帮助减少片阵列天线102发射的入射毫米波信号的反射。在一些实施例中,抗反射层107可以是一层毫米波透明材料,它包括与毫米波透镜104的材料不同的材料。抗反射层107的厚度可以被选择成使得从抗反射层107的入射表面反射的毫米波跟从内表面106(也就是抗反射层107后面)反射的毫米波基本抵消,从而消除大多数或所有反射。在一些实施例中,当抗反射层107的折射指数在毫米波透镜104和空气之间时,抗反射层107的厚度可以是大约四分之一波长,虽然本发明的范围不限于这一方面。在一些实施例中,抗反射层107的厚度可以远大于波长。在一些实施例中,可以用一个或多个抗反射层进一步抑制反射,虽然本发明的范围不限于这一方面。在一些实施例中,抗反射层或抗反射涂层可以在外表面108上。
在一些实施例中,抗反射层107可以包括抗反射涂层,虽然本发明的范围不限于这一方面。在一些实施例中,使用抗反射层107能够减小输入反射系数,从而能够在片透镜阵列天线系统100发射时,减少因为反射而对片阵列天线102的反馈。这样能够帮助避免对片阵列天线102的那些单元不希望的激励。减少反馈还能够帮助提高片透镜天线系统100的效率。
在一些实施例中,片阵列天线102包括各个天线单元的线阵(也就是一维阵)或平面阵(也就是二维阵),其中的各个天线单元通过控制元件耦合到射频(RF)信号路径。这些控制元件可以用于控制这些单元之间的幅度和/或相移,以便将入射波束操纵在毫米波透镜内。在一些实施例中,当片阵列天线102包括天线单元的平面阵时,这些控制元件可以为天线单元设置幅度和/或相移(例如为了获得所需要的扫描角),虽然本发明的范围不限于这一方面。这样就能够产生不同波束宽度和扫描角的宽、窄入射波束。在一些实施例中,可以单独控制天线单元的一些行来引导天线波束。
在一些实施例中,可以在那些行天线单元上提供线性相移。在一些实施例中,可以给片阵列天线102的天线单元应用阵列激励功能来获得天线波束的某些特性,例如某个功率曲线(power profile)和/或旁瓣电平。例如,在天线单元阵列上均匀的幅度分布,在水平方向上线性相移,在垂直方向上恒定相位可以被用来帮助获得波束110和112的某些特性,虽然本发明的范围不限于这一方面。在一些其它实施例中,可以给片阵列天线102的天线单元的幅度和/或相移使用多夫-切比雪夫分布或高斯功率曲线,虽然本发明的范围不限于这一方面。
控制片阵列天线102天线单元之间的幅度和/或相位差能够将波束操纵或引导到所需要的覆盖区内。要注意毫米波透镜104的形状支持波束110和112的特性,而控制和改变天线单元之间的幅度和/或相位差则能够操纵和引导波束。
在一些实施例中,片阵列天线102的天线单元可以包括偶极子辐射单元,虽然本发明的范围不限于这一方面,因为其它类型的辐射单元也行。在一些实施例中片阵列天线102的天线单元可以被配置成各种形状和/或配置中的任意一个,包括方形、矩形、曲线形、直线形、圆形或椭圆形。
在一些实施例中,毫米波透镜104可以与片阵列天线102分隔开,在它们之间提供空腔105。在一些实施例中,空腔105里可以填充空气或填充惰性气体。在其它实施例中,空腔105可以包括在毫米波频率上与毫米波透镜104相比具有较高介电常数和/或较高折射指数的电介质材料。由于可能在空腔105内的电介质材料可以具有较低的介电常数和/或较低的折射指数,从内表面106反射的毫米波较少。在这些实施例中,可以采用一个或多个焦点来提供多个天线扇区,虽然本发明的范围不限于这一方面。
在一些实施例中,可以用固体毫米波电介质材料制作毫米波透镜104,例如在预定毫米波频率上相对折射指数在2和3之间的毫米波折射材料,虽然本发明的范围不限于这一方面。在一些实施例中,可以将交叉链接聚合物(cross-linked polymer),例如Rexolite,用作这种毫米波折射材料,虽然也可以采用其它聚合物和电介质材料,例如聚乙烯、聚-4-甲基戊烯-1特氟隆和高密度聚乙烯。例如,可以从美国新泽西州贝弗利的C-LEC塑料公司获得Rexolite。在一些实施例中,砷化镓GaAs、石英和/或丙烯酸有机玻璃也可以被用作毫米波透镜104。也可以将这些材料中的任意一种选作抗反射层107,只要它是一种不同的材料,并且比用作毫米波透镜104的材料具有更高的折射指数。在一些实施例中,毫米波透镜104和/或抗反射层107可以包括人工电介质材料,并且也可以采用例如分布在电介质材料中的一组金属板或金属颗粒,虽然本发明的范围不限于这一方面。
在一些实施例中,毫米波透镜104可以包括两层或多层毫米波电介质材料。在这些实施例中,距离片阵列天线102较近的第一层的毫米波电介质材料可以比第二层的毫米波电介质材料具有更高的介电常数,虽然本发明的范围不限于这一方面。
在一些实施例中,片透镜天线系统100发射和/或接收的毫米波信号可以包括具有多个基本正交子载波的多载波信号。在一些实施例中,这些多载波信号可以包括正交频分复用(OFDM)信号,虽然本发明的范围不限于这一方面。这些毫米波信号可以包括大约60和90GHz之间的毫米波频率。在一些实施例中,片透镜天线系统100发射和/或接收的毫米波信号可以包括单载波信号,虽然本发明的范围不限于这一方面。
图2A和2B说明本发明一些实施例中的片透镜阵列天线系统。片透镜阵列天线系统200包括片阵列天线202和毫米波透镜204。图2A是片透镜阵列天线系统200的顶视图,图2B是片透镜阵列天线系统200的侧视图。片透镜阵列天线系统200可以在第一面215内产生发散波束210,在垂直面217内产生基本不发散的波束212。
在图2A和2B所示的实施例中,外表面208可以由第一面215中的椭圆形弧线228和第二面217中的椭圆形弧线238限定。内表面206可以由第一面215中基本圆形的弧线226和第二面217中基本圆形的弧线236限定。
在图2A和2B所示的实施例中,当外表面208由第一面215中的椭圆形弧线228限定时,发散波束210可以具有比较窄的入射波束213基本上更窄的波束。在这些实施例中,片阵列天线202引导的毫米波信号的入射波束可以被看作在第二面217和第一面215中都被挤压,虽然可以将入射波束看成在第一面215中被挤压。这样,与片透镜阵列天线系统100相比(图1A和1B),片透镜阵列天线系统200可以在第一面215中以较小的扫描角提供更高的天线增益,
在图2A和2B所示的实施例中,较宽的入射波束203和较窄的入射波束213都可以是发散波束。在这些实施例中,在水平面215内,毫米波透镜204可以将图示具有近似30度波束宽度的较窄的入射波束213转换成波束宽度基本上减小了的图示近似15度波束宽度的发散波束210。在垂直面217内,毫米波透镜204可以将图示具有近似60度波束宽度的较宽入射波束203转换成基本上不发散的波束212。在某个面内选择某个椭圆形弧线可以决定这个面内发射波束的波束宽度,并且发射波束在这个面内是发散还是不发散。在一些实施例中,较宽入射波束203和较窄入射波束213可以指片透镜阵列天线202将入射波束引导到毫米波透镜204上的扫描角,虽然本发明的范围不限于这一方面。
在图2A和2B所示的一些实施例中,外表面208可以由第一面215中的第一椭圆形弧线228限定,并由第二面217中的第二椭圆形弧线238限定。在这些实施例中,第一椭圆形弧线228的曲率半径可以比第二椭圆形弧线238的大,因为第一椭圆形弧线228的曲率半径大于第二椭圆形弧线238的曲率半径,因此在第一面215内,与片阵列天线202产生的入射波束213相比,发散波束210可以不那么发散,虽然本发明的范围不限于这一方面。具有较大曲率半径的椭圆形弧线可以指这样的一些椭圆,它们具有一些焦点,这些焦点间隔更大,以提供“更加平坦“的椭圆形弧线。
在一些实施例中,可以在毫米波透镜204和片阵列天线202之间提供空腔205。如同前面对照片透镜阵列天线系统100(图1)讨论的一样,空腔205中也可以填充空气或惰性气体,或者,空腔205也可以包括在毫米波频率上与毫米波透镜204相比,具有更高介电常数和/或更高折射指数的电介质材料,虽然本发明的范围不限于这一方面。在一些实施例中,毫米波透镜204还可以包括两层或多层毫米波电介质材料。
图3说明本发明中一些正割平方(sec2)实施例的片透镜阵列天线系统。图3是片透镜阵列天线系统300的侧视图。片透镜阵列天线系统300包括毫米波透镜304和片阵列天线302。片阵列天线302可以产生和引导毫米波信号入射波束通过毫米波透镜304供随后发射到用户设备。在这些实施例中,毫米波透镜304可以具有基本球形的内表面306,并且具有包括第一和第二部分318A和318B的外表面308。外表面308的第一和第二部分318A和318B可以被选择成在第一面315提供基本全向的方向图,在第二面317提供基本上正割平方的方向图314。
在一些实施例中,内表面306可以由水平面315和垂直面317内都基本圆形的弧线336限定,正割平方方向图314可以提供这样的天线增益方向图:它依赖于仰角303,为用户设备提供基本上与距离无关的基本均匀的信号电平。在这些实施例中,外表面308的曲线可以代表一个差分方程的解,并且具有既不是球形,椭圆形,也不是抛物形的形状。在一些实施例中,外表面308的曲线可以是母线曲线(generatrix curve),其中的参数是基于基本正割平方314分配的,虽然本发明的范围不限于这一方面。
在一些实施例中,毫米波透镜304可以相对于垂直轴301对称。换句话说,毫米波透镜304的形状可以是通过绕垂直轴301旋转获得的,虽然本发明的范围不限于这一方面。
在一些实施例中,第一面315可以是水平面,第二面317可以是垂直面。在这些实施例中,水平面内基本全向的方向图和垂直面内基本上正割平方的方向图314可以为一个或多个用户设备提供近似相同的信号功率电平,在预定距离内基本上与毫米波透镜304的距离无关。在这些实施例中,水平面内基本全向的方向图和垂直面内基本正割平方的方向图314还可以为一个或多个用户设备提供近似相同的天线灵敏度用来接收信号,在预定距离内基本上与毫米波透镜304的距离无关。换句话说,远照射区的用户设备能够与近照射区中的用户设备一样进行通信。
在一些实施例中,可以在毫米波透镜304和片阵列天线302之间提供空腔305。如同前面参考片透镜阵列天线系统100(图1)所描述的一样,空腔305也可以填充空气或惰性气体,也可以包括与毫米波透镜304相比在毫米波频率上具有更高介电常数和/或更高折射指数的电介质材料,虽然本发明的范围不限于这一方面。在一些实施例中,毫米波透镜304还可以包括两层或多层毫米波电介质材料。
图4A和4B说明本发明的一些全填充实施例中的片透镜阵列天线系统。图4A是片透镜阵列天线系统400的顶视图,图4B是片透镜阵列天线系统400的侧视图。在这些实施例中,片透镜阵列天线系统400包括片阵列天线402和设置在片阵列天线402上面的毫米波折射材料404。片阵列天线402产生毫米波信号波束,并将其引导到毫米波折射材料404内,用于随后发射到一个或多个用户设备。在这些实施例中,毫米波折射材料404具有外表面408,在第一面415中这个外表面408可以由基本圆形弧线(没有画出)或椭圆形弧线428限定,在第二面417中由椭圆形弧线438限定。这种曲率会在第一面415中产生发散波束410,在第二面417产生基本不发散的波束412。
在这些全填充实施例中,片阵列天线402可以至少部分地嵌入毫米波折射材料404。当配置成获得相似的特性并且采用类似的透镜材料时,片透镜阵列天线系统400需要的空间可能比片透镜阵列天线系统100(图1A和1B)或者片透镜阵列天线系统200(图2A和2B)需要的空间少。在一些实施例中,尺寸能够减小多达3倍,虽然本发明的范围不限于这一方面。在一些实施例中,片阵列天线402的尺寸可以按比例缩小,而折射材料404中的波束宽度维持不变,因为毫米波信号在折射材料404中的波长可能比例如空气中的短。这样能够帮助降低片透镜阵列天线系统400的成本。在这些实施例中,片阵列天线402提供的波前在靠近外表面408处可以变得更加象球形,畸变较少。在这些实施例中,毫米波折射材料404可以减小片阵列天线402非零尺寸引起的畸变,提供更加可预测的方向图。此外,没有来自内表面的反射能够减小输入反射系数,减少对片阵列天线402的不利反馈。
在一些实施例中,可以在外表面408上提供非反射涂层或非反射层来减小反射,虽然本发明的范围不限于这一方面。在一些实施例中,毫米波电介质材料404可以包括两层或多层毫米波电介质材料,虽然本发明的范围不限于这一方面。
图5说明图5所示一些多扇区实施例中的片透镜阵列天线系统。图5是多扇区片透镜阵列天线系统500的顶视图。多扇区片透镜阵列天线系统500可以包括多个毫米波透镜部分504和多个片阵列天线502,用来引导毫米波信号通过毫米波透镜部分504中有关的一个,供随后发射给一个或多个用户设备。在这些多扇区实施例中,每个毫米波透镜部分504可以包括弧线限定的内表面506。每个毫米波透镜部分504还可以具有第一面515中基本圆形弧线或椭圆形弧线,第二面内椭圆形弧线限定的外表面508。第一面515可以是水平面,第二面可以是垂直面(也就是垂直于页面或者在页面内),虽然本发明的范围不限于这一方面。
在一些实施例中,用于限定内表面506和外表面508的弧线可以是椭圆形的、双曲线的、抛物线的和/或基本圆形的,可以被选择成在第一面515内提供发散波束510,在第二面内提供基本不发散的波束。在一些多扇区实施例中,每个片阵列天线502,以及毫米波透镜部分504之一可以与多个扇区中的一个扇区相关联,用于与这个相关联扇区中的用户设备通信,虽然本发明的范围不限于这一方面。
在图5所示的示例性实施例中,每个扇区可以覆盖水平面515内的近似60度,发散波束510在水平面内可以具有15度的波束宽度。在这些实施例中,片阵列天线502可以在30度的波束宽度内将其波束操纵在透镜504内,在如图所示60度的扇区内扫描,在每个扇区内提供全覆盖。在一些其它实施例中,每个扇区可以覆盖近似120度,虽然本发明的范围不限于这一方面。
在图5所示的示例性实施例中,每个片阵列天线502可以用30度的波束宽度照射毫米波透镜504。毫米波透镜504可以将波束宽度减小到例如二分之一,向毫米波透镜504以外提供15度波束宽度的发散波束510。将波束宽度缩小一半使得片阵列天线502在扫描时能够提供更大的覆盖区域半径。例如,片阵列天线522可以在扫描角524(图中画出为90度)内进行扫描,覆盖较大的扇区,在毫米波透镜504外提供扫描角526(示出为45度)(也就是从扫描波束520到扫描波束521)。在这个实例中,毫米波透镜504外45度的扫描角可以从毫米波透镜504内90度的扫描角缩小而来。这样就允许每个片阵列天线502用每个发散波束510提供的15度波束宽度在60度扇区之一提供覆盖。不要求每个扇区使用同样的天线方向图和/或波束宽度。在一些实施例中,不同的扇区可以使用不同的天线方向图和/或波束宽度,虽然本发明的范围不限于这一方面。
在一些实施例中,可以在毫米波透镜504和片阵列天线502之间提供一个或多个空腔。如同前面参考片透镜阵列天线系统100(图1)所讨论的一样,这些空腔可以填充空气或惰性气体,这些空腔也可以包括与毫米波透镜504相比,在毫米波频率上具有更高介电常数和/或更高折射指数的电介质材料,虽然本发明的范围不限于这一方面。在一些实施例中,毫米波透镜504还可以包括两层或多层毫米波电介质材料。
参考图1A、1B、2A、2B、3、4A、4B和5,片阵列天线102适合于被用作片阵列天线202、片阵列天线302、片阵列天线402和片阵列天线502。上述用于制作毫米波透镜104的材料也适合于用于制作毫米波透镜204、毫米波透镜304、毫米波透镜折射材料404和毫米波透镜504的一些部分。在一些实施例中,可以在毫米波透镜204的内表面和/或外表面,在毫米波透镜304的内表面和/或外表面,在毫米波透镜材料404的外表面,以及在毫米波透镜504的那些部分的内表面和/或外表面,提供抗反射层或涂层,例如抗反射层107,虽然本发明的范围不限于这一方面。
图6说明本发明的一些实施例中的毫米波通信系统。毫米波通信系统600包括毫米波多载波基站604和片透镜阵列天线系统602。毫米波多载波基站604可以产生毫米波信号,由片透镜阵列天线系统602发射给用户设备。片透镜阵列天线系统602还可以提供从用户设备收到的毫米波信号给毫米波多载波基站604。在一些实施例中,毫米波多载波基站604可以产生和/或处理多载波毫米波信号,虽然本发明的范围不限于这一方面。片透镜阵列天线系统100(图1A和1B)、片透镜阵列天线系统200(图2A和2B)、片透镜阵列天线系统300(图3)、片透镜阵列天线系统400(图4A和4B)或片透镜阵列天线系统500(图5)适合于用作片透镜阵列天线系统602。
如同这里所使用的一样,术语“带宽”和“天线波束”可以指毫米波信号的接收区域和/或发射区域。同样,“产生”和“引导”可以指毫米波信号的接收和/或发射。如同这里所使用的一样,用户设备可以是便携式无线通信设备,例如个人数字助理(PDA),具有无线通信能力的膝上型或便携式计算机,网络输入板(web tablet)、无线电话、无线头戴式耳机、寻呼机、即时消息传递设备、数字相机、接入点、电视、医疗设备(例如心率监视仪、血压监视仪等),或者能够以无线方式接收和/或发射信息的其它设备。在一些实施例中,用户设备可以包括定向天线来接收和/或发射毫米波信号。
在一些实施例中,毫米波通信系统600可以按照具体通信标准或提出的协议传递毫米波信号,例如电气和电子工程师协会(IEEE)标准,包括IEEE 802.15标准和为毫米波通信提出的规范(例如IEEE 802.15任务组2005年12月的3c的“Call For Intent”),虽然本发明的范围不限于这一方面,因为它们还适合于按照其它技术和标准来发射和/或接收通信信号。关于IEEE802.15标准的更多信息,请参考“IEEE Standards for Information Technology—Telecommunications and Information Exchange between Systems”第15部分。
给出摘要是为了符合37 C.F.R.第1.72(b)节需要摘要,让读者能够确定技术公开的本质和要点的要求。要明白,摘要不是用于限定或解释权利要求的范围或含义的。
在以上描述中,在单独的实施例中为了使说明流畅,将各个特征随意地组合在一起。这里公开的方法不应该被解释为说明主题的实施例需要比每个权利要求明确提到的还要多的特征。相反,以下权利要求反映了本发明可以建立在比单个实施例所有特征要少的特征的基础之上。因此,将以下权利要求包括在详细描述中,每个权利要求都单独代表一个优选实施例。
Claims (20)
1.一种片透镜阵列天线系统,包括:
毫米波透镜;以及
片阵列天线,用于生成毫米波信号的入射波束,并引导其通过所述毫米波透镜,供随后发射,
其中所述毫米波透镜具有内表面和外表面,它们的曲率被选择成在第一面内提供发散波束,在第二面内提供基本不发散的波束。
2.如权利要求1所述的片透镜阵列天线系统,
其中所述内表面基本由所述第一面和所述第二面这两者内基本圆形的弧线限定;
其中所述外表面由所述第一面内基本圆形的弧线或椭圆形的弧线以及所述第二面内椭圆的弧线限定;以及
其中所述毫米波信号包括若干多载波信号,这些多载波信号具有多个基本正交的子载波,这些基本正交的子载波包括频率在近似60和90GHz之间的毫米波。
3.如权利要求2所述的片透镜阵列天线系统,还包括:
抗反射层,设置在所述毫米波透镜内表面或外表面的至少一个上,用来帮助减少所述片阵列天线产生的毫米波信号反射。
4.如权利要求1所述的片透镜阵列天线系统,其中所述片阵列天线包括:
天线单元的线阵或平面阵,这些天线单元通过若干控制元件耦合到毫米波信号路径,这些控制元件控制这些天线单元之间的幅度和相移,用于将所述入射波束操纵在所述毫米波透镜内。
5.如权利要求1所述的片透镜阵列天线系统,其中所述毫米波透镜与所述片阵列天线分隔开,在它们之间提供空腔,所述空腔包括介电常数高于所述毫米波透镜的介电常数的电介质材料。
6.一种片透镜阵列天线系统,包括:
毫米波透镜;以及
片阵列天线,用于生成毫米波信号,并引导其通过所述毫米波透镜,供随后发射,
其中所述毫米波透镜具有内表面,并且具有由第一和第二部分限定的外表面,并且
其中所述外表面的第一和第二部分被选择成在第一面内提供基本全向的方向图,在第二面内提供基本正割平方的方向图。
7.如权利要求6所述的片透镜阵列天线系统,其中所述第一面是水平面,所述第二面是垂直面,
其中所述内表面基本上是球形,以及
其中所述水平面内基本全向的方向图和所述垂直面内基本正割平方的方向图提供在预定范围内基本独立于与所述毫米波透镜的距离的信号功率电平,并且还为信号的接收提供基本独立于所述距离的信号电平灵敏度。
8.如权利要求6所述的片透镜阵列天线系统,其中所述片阵列天线包括天线单元的线阵或平面阵,这些天线单元通过若干控制元件耦合到毫米波信号路径,这些控制元件控制这些天线单元之间的幅度和相移,用于将所述入射波束操纵在所述毫米波透镜内,
其中所述毫米波透镜包括交叉链接的聚合物折射材料,并且
其中所述毫米波信号包括若干多载波信号,这些多载波信号具有多个基本正交的子载波,这些基本正交的子载波包括频率在近似60和90GHz之间的毫米波。
9.如权利要求6所述的片透镜阵列天线系统,其中所述毫米波透镜与所述片阵列天线分隔开,在它们之间提供空腔,所述空腔包括介电常数高于所述毫米波透镜的介电常数的电介质材料。
10.如权利要求6所述的片透镜阵列天线系统,其中所述毫米波透镜包括至少第一和第二层毫米波电介质材料,
其中所述第一层的毫米波电介质材料的介电常数比所述第二层的毫米波电介质材料的介电常数高,以及
其中所述第一层比所述第二层更加靠近所述片阵列天线。
11.一种多扇区片透镜阵列天线系统,包括:
多个毫米波透镜部分;以及
多个片阵列天线,用于引导毫米波信号通过那些毫米波透镜部分中相关的一个,供随后发射,
其中那些毫米波透镜部分中的每一个包括部分圆弧限定的内表面,以及
其中那些毫米波透镜部分中的每一个具有外表面,该外表面由所述第一面内基本圆形的弧线或椭圆形的弧线限定并且由所述第二面内椭圆的弧线限定,在每个扇区的第一面内提供发散波束,在每个扇区的第二面内提供基本不发散的波束。
12.如权利要求11所述的多扇区片透镜阵列天线系统,其中每个片阵列天线和毫米波透镜部分与多个扇区中的一个扇区相关联,以便进行通信,并且
还包括抗反射层,设置在所述毫米波透镜内表面或外表面的至少一个上,用来帮助减少所述片阵列天线产生的毫米波信号的反射。
13.如权利要求11所述的多扇区片透镜阵列天线系统,其中每个片阵列天线包括天线单元的线阵或平面阵,这些天线单元通过若干控制元件耦合到毫米波信号路径,这些控制元件控制这些天线单元之间的幅度和相移,用于将所述入射波束操纵在所述毫米波透镜内,
其中所述毫米波透镜包括交叉链接的聚合物折射材料,并且
其中所述毫米波信号包括若干多载波信号,这些多载波信号具有多个基本正交的子载波,这些基本正交的子载波包括频率在近似60和90GHz之间的毫米波。
14.如权利要求11所述的多扇区片透镜阵列天线系统,其中所述毫米波透镜与所述片阵列天线分隔开,在它们之间提供空腔,所述空腔包括介电常数高于所述毫米波透镜的介电常数的电介质材料。
15.如权利要求11所述的多扇区片透镜阵列天线系统,其中所述毫米波透镜包括至少第一和第二层毫米波电介质材料,
其中所述第一层的毫米波电介质材料的介电常数比所述第二层的毫米波电介质材料的介电常数高,以及
其中所述第一层比所述第二层更加靠近所述片阵列天线。
16.一种片透镜阵列天线系统,包括:
片阵列天线;以及
毫米波折射材料,设置在所述片阵列天线上面,所述片阵列天线用于生成毫米波信号,并将其引导到所述毫米波折射材料内,供随后发射,
其中所述毫米波折射材料具有外表面,该外表面在第一面内由基本圆形的弧线或椭圆弧线限定,在第二面内由椭圆型的弧线限定,以便在所述第一面内产生发散波束,在所述第二面内产生基本不发散的波束。
17.如权利要求16所述的片透镜阵列,
其中所述片阵列天线至少部分地嵌入所述毫米波电介质材料中,并且
其中所述毫米波电介质材料包括交叉链接的聚合物折射材料。
18.如权利要求16所述的片透镜阵列,还包括:
抗反射层,设置在所述毫米波透镜内表面或外表面的至少一个上,用来帮助减少所述片阵列天线产生的毫米波信号的反射。
19.如权利要求16所述的片透镜阵列天线系统,其中所述片阵列天线包括:
天线单元的线阵或平面阵,这些天线单元通过若干控制元件耦合到毫米波信号路径,这些控制元件控制这些天线单元之间的幅度和相移,用于将所述入射波束操纵在所述毫米波透镜内,并且
其中所述毫米波信号包括若干多载波信号,这些多载波信号具有多个基本正交的子载波,这些基本正交的子载波包括频率在近似60和90GHz之间的毫米波。
20.如权利要求16所述的片透镜阵列天线系统,其中所述毫米波透镜包括至少第一和第二层毫米波电介质材料,
其中所述第一层的毫米波电介质材料的介电常数比所述第二层的毫米波电介质材料的介电常数高,以及
其中所述第一层比所述第二层更加靠近所述片阵列天线。
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Also Published As
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US8395558B2 (en) | 2013-03-12 |
US20100156721A1 (en) | 2010-06-24 |
CN101427422B (zh) | 2013-08-07 |
ATE509391T1 (de) | 2011-05-15 |
EP2022188A1 (en) | 2009-02-11 |
WO2007136293A1 (en) | 2007-11-29 |
EP2022188B1 (en) | 2011-05-18 |
WO2007136292A1 (en) | 2007-11-29 |
CN101427487A (zh) | 2009-05-06 |
US20090219903A1 (en) | 2009-09-03 |
CN101427487B (zh) | 2013-04-24 |
ATE510364T1 (de) | 2011-06-15 |
CN101427420A (zh) | 2009-05-06 |
WO2007136289A1 (en) | 2007-11-29 |
EP2025045B1 (en) | 2011-05-11 |
EP2025045A1 (en) | 2009-02-18 |
JP2009538034A (ja) | 2009-10-29 |
EP2022135A1 (en) | 2009-02-11 |
CN101427420B (zh) | 2013-05-01 |
US8193994B2 (en) | 2012-06-05 |
US20090315794A1 (en) | 2009-12-24 |
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